// Copyright (c) 2005-2009 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 

// @internalComponent - Internal Symbian test code

// This is a support app used by Apparc\tef\TApparcTestServer (TApparc4Step in particular)

// This application covers the following tests for the static objects

// Test 1 : Existing CCoeStatic derived objects using the 2 parameter

// constructor must be destroyed before the app ui.

// Way to test this,

// Case 1: Get hold of a particular static using CCoeEnv::Static(TUid aUid) 

// in an application's override of CEikAppUi::PrepareToExit() and confirm the 

// returned pointer is not null. 

// Case 2: Then, the same thing is done in the app ui's destructor to check that 

// the pointer is now null.

// Test 2: A static constructed with a negative priority should be accessible from the 

// app ui's destructor, but then destroyed before another static that has a lower priority value.

// Way to test this,

// Case 1: Construct a static (A) using the 3 parameter constructor, specifying a negative priority.

// Then construct another static (B) specifying a priority (A's priority - 1). 

// Check that static A is still non-null when accessed from the app ui's destructor. 

// Case 2: Then check that static A is null when accessed from B's destructor.

// Test 3: Given two statics with different positive priorities,

// the higher priority one should be destroyed first.

// Way to test this,

// Case 1: If (for example) static A has priority EDefaultDestructionPriority,

// and static B has EDefaultDestructionPriority-1, A's destructor should be able to access B,

// Case 2: But B's destructor shouldn't be able to access A.

// Test 4: Statics with priorities immediately either side of the pre/post-destroy app ui should be destroyed before/after the app ui. Should also test that 

// the first negative priority static is destroyed and not "skipped over" when the code calculates

// which static should be destroyed next after the app ui has been destroyed.

// Way to test this,

// Case 1: We could create statics A, B and C with priority zero, -1 and -2 respectively. 

// Then check in the app ui destructor that A is null, and B and C are both non-null.

// Case 2: Then in B's destructor check that C is still non-null.

// Case 3: And in C's destructor check that B is now null.

// 

// tapparctestapp.cpp

//

#include <coeccntx.h>

#include <apgtask.h>

#include <eikenv.h>

#include <eikappui.h>

#include <eikapp.h>

#include <eikdoc.h>

#include <techview/eikmenup.h>

#include <f32file.h>

#include <techview/eikon.hrh>

#include <eikstart.h> //TKAS added for exe-app

#include <tapparctestapp.rsg>

// File which stores the test results

_LIT(KApparcTestResultsFileName, "c:\\system\\Apparctest\\ApparcTestResultsFile.txt");

_LIT(KApparcTestDir, "c:\\system\\Apparctest\\");

_LIT8(KTestPass ,"PASS\r\n");

_LIT8(KTestFail,"FAIL\r\n");

_LIT8(KApparcTest1,"Test1:");

_LIT8(KApparcTest2,"Test2:");

_LIT8(KApparcTest3,"Test3:");

_LIT8(KApparcTest4,"Test4:");

_LIT8(KApparcTestCase1,"Case1:");

_LIT8(KApparcTestCase2,"Case2:");

_LIT8(KApparcTestCase3,"Case3:");

const TUid KUidApparcTestApp = {0x100048F3};

// Uids for diffent classes for static 

const TUid KUidTestStatic		 = 	{0x13003ACE}; 

const TUid KUidTestStaticNegativePrioA = {0x13004ACE}; 

const TUid KUidTestStaticNegativePrioB = {0x13005ACE}; 

const TUid KUidTestStaticPosPriA =	{0x13006ACE};

const TUid KUidTestStaticPosPriB = 	{0x13007ACE};

const TUid KUidTestStaticPriZeroA=	{0x13009ACE};

const TUid KUidTestStaticPriOneB =	{0x1300AACE};

const TUid KUidTestStaticPriTwoC =	{0x1300BACE};

// Priorities for static objects

enum {ENegativePriortyStaticA = -3};

enum {EPriorityTwoStaticC= -2,EPriorityOneStaticB = -1,EPriorityZeroStaticA= 0};

// static class for Test case 1  

class CTApparcTestStatic : public CCoeStatic

	{

public:

	inline CTApparcTestStatic(RFile& aFile);

	inline static CTApparcTestStatic* Self();

	~CTApparcTestStatic();

	RFile iFile;

	};

CTApparcTestStatic::~CTApparcTestStatic()

	{

	}

// Static class with negative priority for Test case 2.

class CTApparcTestNegativePrioStaticA : public CCoeStatic

	{

public:

	inline CTApparcTestNegativePrioStaticA(RFile& aFile);

	inline static CTApparcTestNegativePrioStaticA* Self();

	~CTApparcTestNegativePrioStaticA();

	RFile& iFile;

	};

// Static class with negative priority for Test case 2. (priority less than CTApparcTestNegativePrioStaticA)

class CTApparcTestNegativePrioStaticB : public CCoeStatic

	{

public:

	inline CTApparcTestNegativePrioStaticB();

	inline static CTApparcTestNegativePrioStaticB* Self();

	static CTApparcTestNegativePrioStaticB* NewL();

	void ConstructL();

	~CTApparcTestNegativePrioStaticB();

	RFile iFile;

	RFs iFs;

	};

CTApparcTestNegativePrioStaticA::~CTApparcTestNegativePrioStaticA()

	{

	}

CTApparcTestNegativePrioStaticB::~CTApparcTestNegativePrioStaticB()

	{

	// Test 2, Case 2

	CTApparcTestNegativePrioStaticA* testCoeStaticA = CTApparcTestNegativePrioStaticA::Self();

	iFile.Write(KApparcTest2);

	iFile.Write(KApparcTestCase2);

	if(testCoeStaticA == NULL)

		iFile.Write(KTestPass);

	else

		iFile.Write(KTestFail);

	// CTApparcTestNegativePrioStaticB class object is the most negative prioritised

	// static objects .Hence the file and session handles are closed here as no

	// more logging is required hereafter. 	

	iFile.Close();

	iFs.Close();	

	}

// Static class with positive priority for Test case 3:

class CTApparcTestPosPrioStaticA : public CCoeStatic

	{

public:

	inline CTApparcTestPosPrioStaticA(RFile& aFile);

	inline static CTApparcTestPosPrioStaticA* Self();

	~CTApparcTestPosPrioStaticA();

	RFile& iFile;

	};

// static class with positive priority less than CTApparcTestPosPrioStaticA for Test case 3.

class CTApparcTestPosPrioStaticB : public CCoeStatic

	{

public:

	inline CTApparcTestPosPrioStaticB(RFile& aFile);

	inline static CTApparcTestPosPrioStaticB* Self();

	~CTApparcTestPosPrioStaticB();

	RFile& iFile;

	};

CTApparcTestPosPrioStaticA::~CTApparcTestPosPrioStaticA()

	{

	// Test 3 , Case 1

	CTApparcTestPosPrioStaticB* testPosPrioStaticB = CTApparcTestPosPrioStaticB::Self();

	iFile.Write(KApparcTest3);

	iFile.Write(KApparcTestCase1);

	if(testPosPrioStaticB != NULL)

		iFile.Write(KTestPass);

	else

		iFile.Write(KTestFail);

	}

CTApparcTestPosPrioStaticB::~CTApparcTestPosPrioStaticB()

	{

	// Test 3 , Case 2

	CTApparcTestPosPrioStaticA* testPosPrioStaticA = CTApparcTestPosPrioStaticA::Self();

	iFile.Write(KApparcTest3);

	iFile.Write(KApparcTestCase2);

	if(testPosPrioStaticA == NULL)

		iFile.Write(KTestPass);

	else

		iFile.Write(KTestFail);

	}

// static class with  priority 0 for test case 4

class CTApparcTestPrioZeroStaticA : public CCoeStatic

	{

public:

	inline CTApparcTestPrioZeroStaticA(RFile& aFile);

	inline static CTApparcTestPrioZeroStaticA* Self();

	~CTApparcTestPrioZeroStaticA();

	RFile& iFile;

	};

// static class with priority -1 for test case 4

class CTApparcTestPrioOneStaticB : public CCoeStatic

	{

public:

	inline CTApparcTestPrioOneStaticB(RFile& aFile);

	inline static CTApparcTestPrioOneStaticB* Self();

	~CTApparcTestPrioOneStaticB();

	RFile& iFile;

	};

// static class with priority -2 for test case 4	

class CTApparcTestPrioTwoStaticC : public CCoeStatic

	{

public:

	inline CTApparcTestPrioTwoStaticC(RFile& aFile);

	inline static CTApparcTestPrioTwoStaticC* Self();

	~CTApparcTestPrioTwoStaticC();

	RFile& iFile;

	};

CTApparcTestPrioZeroStaticA::~CTApparcTestPrioZeroStaticA()

	{

	}

CTApparcTestPrioOneStaticB::~CTApparcTestPrioOneStaticB()

	{

	// Test 4 , Case 2

	CTApparcTestPrioTwoStaticC* testPrioTwoCoeStaticC = CTApparcTestPrioTwoStaticC::Self();

	iFile.Write(KApparcTest4);

	iFile.Write(KApparcTestCase2);

	if(testPrioTwoCoeStaticC != NULL)

		iFile.Write(KTestPass);

	else

		iFile.Write(KTestFail);

	}

CTApparcTestPrioTwoStaticC::~CTApparcTestPrioTwoStaticC()

	{

	// Test 4 , Case 3

	CTApparcTestPrioOneStaticB* testPrioOneCoeStaticB = CTApparcTestPrioOneStaticB::Self();

	iFile.Write(KApparcTest4);

	iFile.Write(KApparcTestCase3);

	if(testPrioOneCoeStaticB == NULL)

		iFile.Write(KTestPass);

	else

		iFile.Write(KTestFail);

	}

//

//

// CTApparcTestAppView

//

//

class CTApparcTestAppView : public CCoeControl

    {

public:

	static CTApparcTestAppView* NewL(const TRect& aRect);

	CTApparcTestAppView();

	~CTApparcTestAppView();

    void ConstructL(const TRect& aRect);

private:

    // Inherited from CCoeControl

	void Draw(const TRect& /*aRect*/) const;

private:

	HBufC*  iApparcTestText;

    };

CTApparcTestAppView::CTApparcTestAppView()

	{

	}

CTApparcTestAppView* CTApparcTestAppView::NewL(const TRect& aRect)

	{

	CTApparcTestAppView* self = new(ELeave) CTApparcTestAppView();

	CleanupStack::PushL(self);

	self->ConstructL(aRect);

	CleanupStack::Pop();

	return self;

	}

CTApparcTestAppView::~CTApparcTestAppView()

	{

	delete iApparcTestText;

	}

void CTApparcTestAppView::ConstructL(const TRect& aRect)

    {

	iApparcTestText = iEikonEnv->AllocReadResourceL(R_TAPPARCTEST_TEXT_TITLE);

	CreateWindowL();

	SetRect(aRect);

	ActivateL();

	}

void CTApparcTestAppView::Draw(const TRect& /*aRect*/) const

	{

	CWindowGc& gc = SystemGc();

	TRect      drawRect = Rect();

	const CFont*  fontUsed = iEikonEnv->TitleFont();

	gc.Clear();

	gc.UseFont(fontUsed);

	TInt   baselineOffset=(drawRect.Height() - fontUsed->HeightInPixels())/2; 

	gc.DrawText(*iApparcTestText,drawRect,baselineOffset,CGraphicsContext::ECenter, 0);

	gc.DiscardFont();

	}

//

//

// CTApparcTestAppUi

//

//

class CTApparcTestAppUi : public CEikAppUi

    {

public:

    void ConstructL();

	~CTApparcTestAppUi();

private:

    // Inherirted from class CEikAppUi

	void PrepareToExit();

	void HandleCommandL(TInt aCommand);

private:

	CCoeControl*	iAppView;

	};

void CTApparcTestAppUi::ConstructL()

    {

    BaseConstructL();

	iAppView = CTApparcTestAppView::NewL(ClientRect());

	// Constructs the static object for tests

	CTApparcTestNegativePrioStaticB* testCoeStaticB = CTApparcTestNegativePrioStaticB::NewL();

	CTApparcTestStatic* testCoeStatic = new (ELeave)CTApparcTestStatic(testCoeStaticB->iFile);

	CTApparcTestNegativePrioStaticA* testCoeStaticA  = new(ELeave)CTApparcTestNegativePrioStaticA(testCoeStaticB->iFile);

	CTApparcTestPrioTwoStaticC* testPrioTwoStaticC = new(ELeave) CTApparcTestPrioTwoStaticC(testCoeStaticB->iFile);

    CTApparcTestPosPrioStaticA* testPosPriStaticA = new(ELeave) CTApparcTestPosPrioStaticA(testCoeStaticB->iFile);

	CTApparcTestPosPrioStaticB* testPosPriStaticB = new(ELeave) CTApparcTestPosPrioStaticB(testCoeStaticB->iFile);

	CTApparcTestPrioZeroStaticA* testPrioZeroStaticA = new(ELeave) CTApparcTestPrioZeroStaticA(testCoeStaticB->iFile);

	CTApparcTestPrioOneStaticB* testPrioOneStaticB = new(ELeave) CTApparcTestPrioOneStaticB(testCoeStaticB->iFile);

	// to get rid of compiler warnings

	if(testCoeStatic==NULL  || testCoeStaticA == NULL ||  testCoeStaticB == NULL|| testPosPriStaticA ==NULL ||

		testPosPriStaticB == NULL || testPrioZeroStaticA == NULL || testPrioOneStaticB == NULL|| testPrioTwoStaticC == NULL)

		 return;	

	}

CTApparcTestAppUi::~CTApparcTestAppUi()

	{

	CTApparcTestNegativePrioStaticB* testNegStaticB = CTApparcTestNegativePrioStaticB::Self();

	// Test 1, Case 2

	CTApparcTestStatic* testCoeStatic = CTApparcTestStatic::Self();

	testNegStaticB->iFile.Write(KApparcTest1);

	testNegStaticB->iFile.Write(KApparcTestCase2);

	if(testCoeStatic == NULL)

		testNegStaticB->iFile.Write(KTestPass);

	else

		testNegStaticB->iFile.Write(KTestFail);

	// Test 2, Case 1	 

	CTApparcTestNegativePrioStaticA* testCoeStaticA = CTApparcTestNegativePrioStaticA::Self();

	testNegStaticB->iFile.Write(KApparcTest2);

	testNegStaticB->iFile.Write(KApparcTestCase1);

	if(testCoeStaticA != NULL)

		testNegStaticB->iFile.Write(KTestPass);

	else

		testNegStaticB->iFile.Write(KTestFail);

	// Test 4, Case 1

	CTApparcTestPrioZeroStaticA* testPrioZeroCoeStaticA = CTApparcTestPrioZeroStaticA::Self();

	CTApparcTestPrioOneStaticB* testPrioOneCoeStaticB = CTApparcTestPrioOneStaticB::Self();

	CTApparcTestPrioTwoStaticC* testPrioTwoCoeStaticC = CTApparcTestPrioTwoStaticC::Self();

	testNegStaticB->iFile.Write(KApparcTest4);

	testNegStaticB->iFile.Write(KApparcTestCase1);

	if(testPrioZeroCoeStaticA == NULL && testPrioOneCoeStaticB != NULL && testPrioTwoCoeStaticC != NULL)

		testNegStaticB->iFile.Write(KTestPass);

	else

		testNegStaticB->iFile.Write(KTestFail);

	delete iAppView;

	}

void CTApparcTestAppUi::HandleCommandL(TInt aCommand)

	{

	switch (aCommand)

		{

 	case EEikCmdExit: 

		Exit();

		break;

		}

	}

void CTApparcTestAppUi::PrepareToExit()

	{

	CEikAppUi::PrepareToExit();

	// Test 1, Case 1

	CTApparcTestStatic* testCoeStatic = CTApparcTestStatic::Self();

	testCoeStatic->iFile.Write(KApparcTest1);

	testCoeStatic->iFile.Write(KApparcTestCase1);

	if(testCoeStatic != NULL)

		testCoeStatic->iFile.Write(KTestPass);

	else

		testCoeStatic->iFile.Write(KTestFail);

	}

//

//

// CTApparcTestDocument

//

//

class CTApparcTestDocument : public CEikDocument

	{

public:

	static CTApparcTestDocument* NewL(CEikApplication& aApp);

	CTApparcTestDocument(CEikApplication& aApp);

	void ConstructL();

private: 

	// Inherited from CEikDocument

	CEikAppUi* CreateAppUiL();

	};

CTApparcTestDocument::CTApparcTestDocument(CEikApplication& aApp)

		: CEikDocument(aApp)

	{

	}

CEikAppUi* CTApparcTestDocument::CreateAppUiL()

	{

    return new(ELeave) CTApparcTestAppUi;

	}

//

//

// CTApparcTestApplication

//

//

class CTApparcTestApplication : public CEikApplication

	{

private: 

	// Inherited from class CApaApplication

	CApaDocument* CreateDocumentL();

	TUid AppDllUid() const;

private:

	CApaDocument* CreateDocumentL(CApaProcess* a) { return CEikApplication::CreateDocumentL(a); }

	};

TUid CTApparcTestApplication::AppDllUid() const

	{

	return KUidApparcTestApp;

	}

CApaDocument* CTApparcTestApplication::CreateDocumentL()

	{

	return new (ELeave) CTApparcTestDocument(*this);

	}

EXPORT_C CApaApplication* NewApplication()

	{

	return new CTApparcTestApplication;

	}

GLDEF_C TInt E32Main()

	{

	return EikStart::RunApplication(NewApplication);

	}

// inline function for CTApparcTestStatic

inline CTApparcTestStatic::CTApparcTestStatic(RFile& aFile)

	: CCoeStatic(KUidTestStatic),iFile(aFile)

	{

	}

inline CTApparcTestStatic* CTApparcTestStatic::Self()

	{

	return STATIC_CAST(CTApparcTestStatic*,CCoeEnv::Static(KUidTestStatic));

	}

// inline functions for CTApparcTestNegativePrioStaticA

inline CTApparcTestNegativePrioStaticA::CTApparcTestNegativePrioStaticA(RFile& aFile)

	: CCoeStatic(KUidTestStaticNegativePrioA,ENegativePriortyStaticA),iFile(aFile)

	{

	}

inline CTApparcTestNegativePrioStaticA* CTApparcTestNegativePrioStaticA::Self()

	{

	return STATIC_CAST(CTApparcTestNegativePrioStaticA*,CCoeEnv::Static(KUidTestStaticNegativePrioA));

	}

// inline functions for CTApparcTestNegativePrioStaticB	

inline CTApparcTestNegativePrioStaticB::CTApparcTestNegativePrioStaticB()

	: CCoeStatic(KUidTestStaticNegativePrioB,ENegativePriortyStaticA - 1)

	{

	}

inline CTApparcTestNegativePrioStaticB* CTApparcTestNegativePrioStaticB::Self()

	{

	return STATIC_CAST(CTApparcTestNegativePrioStaticB*,CCoeEnv::Static(KUidTestStaticNegativePrioB));

	}