// Copyright (c) 1995-2009 Nokia Corporation and/or its subsidiary(-ies).
// All rights reserved.
// This component and the accompanying materials are made available
// under the terms of the License "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:
// e32test\buffer\t_key.cpp
// Overview:
// Test arrays keys against flat and segmented arrays of characters (8 and 16 bit) and records.
// API Information:
// TKeyArrayFix, TKeyArrayVar.
// Details:
// - Create flat and segmented array of TText8, TText16, TText. Append some text to the
// arrays and test the functions of the TKeyArrayFix class using the Find method which
// calls SetPtr, Set, Compare methods with ECmpNormal8, ECmpFolded8, ECmpCollated8,
// ECmpNormal16, ECmpFolded16, ECmpCollated16, ECmpNormal, ECmpFolded, ECmpCollated key types.
// - Test the functions of the TKeyArrayVar class using the Find method which calls SetPtr, Set,
// Compare methods with ECmpNormal8, ECmpFolded8, ECmpCollated8, ECmpNormal16, ECmpFolded16,
// ECmpCollated16, ECmpNormal, ECmpFolded, ECmpCollated key types.
// - Create flat and segmented array of TText, append some structures with different values.
// - Test the functions of the TKeyArrayFix, TKeyArrayVar classes by searching the values using
// sequential search technique with ECmpNormal, ECmpTInt32 key type and verifying that it is
// found at correct position.
// - For TKeyArrayFix and TKeyArrayVar class, create a flat array of TText, append some structures
// with different numeric values, sort the array, search the values using ECmpTInt, ECmpTUint,
// ECmpTint8, ECmpTUint8, ECmpTint16, ECmpTUint16, ECmpTint32, ECmpTUint32 key types and verify
// that values are found in order as expected.
// Platforms/Drives/Compatibility:
// All
// Assumptions/Requirement/Pre-requisites:
// Failures and causes:
// Base Port information:
//
//
#include <e32std.h>
#include <e32base.h>
#include <e32test.h>
#include <e32svr.h>
#include <e32ver.h>
#ifdef __VC32__
#pragma warning (disable:4710) // Function not expanded
#pragma warning (disable:4702) // Unreachable code
#endif
const TInt KTestGranularity=0x02;
LOCAL_D RTest test(_L("T_KEY"));
template <class T,TInt S>
class TArr
{
public:
TArr() {}
TInt Count() const {return S;}
T& operator[](TInt anIndex) {return iArr[anIndex];}
const T& operator[](TInt anIndex) const {return iArr[anIndex];}
private:
T iArr[S];
};
//#if defined(_DEBUG)
struct Record
{
TBuf<0x10> name;
TInt32 age;
TText8 code;
};
struct Record2
{
TInt tint;
TUint tuint;
TInt8 tint8;
TUint8 tuint8;
TInt16 tint16;
TUint16 tuint16;
TInt32 tint32;
TUint32 tuint32;
}Rec1, Rec2, Rec3, Rec4;
LOCAL_C void SetRecordData(void)
{
Rec1.tint=KMaxTInt;
Rec2.tint=0;
Rec3.tint=-KMaxTInt;
Rec4.tint=KMinTInt;
Rec1.tint8=KMaxTInt8;
Rec2.tint8=0;
Rec3.tint8=-KMaxTInt8;
Rec4.tint8=(TInt8)KMinTInt8;
Rec1.tint16=KMaxTInt16;
Rec2.tint16=0;
Rec3.tint16=-KMaxTInt16;
Rec4.tint16=(TInt16)KMinTInt16;
Rec1.tint32=KMaxTInt32;
Rec2.tint32=0;
Rec3.tint32=-KMaxTInt32;
Rec4.tint32=(TInt32)KMinTInt32;
Rec1.tuint=0;
Rec2.tuint=1;
Rec3.tuint=KMaxTUint-1;
Rec4.tuint=KMaxTUint;
Rec1.tuint8=0;
Rec2.tuint8=1;
Rec3.tuint8=(TUint8)(KMaxTUint8-1);
Rec4.tuint8=(TUint8)KMaxTUint8;
Rec1.tuint16=0;
Rec2.tuint16=1;
Rec3.tuint16=(TUint16)(KMaxTUint16-1);
Rec4.tuint16=(TUint16)KMaxTUint16;
Rec1.tuint32=0;
Rec2.tuint32=1;
Rec3.tuint32=(TUint32)(KMaxTUint32-1);
Rec4.tuint32=KMaxTUint32;
}
typedef enum {eEight, eSixteen} TMode;
template<class KeyType, class ArrayType, class S> // S is TText8, TTExt etc. called S as _TL requires S in e32test.h
class TestTKey
{
public:
void Test1(TKeyCmpText, TKeyCmpText, TKeyCmpText);
void Test2(TKeyCmpText, TKeyCmpText, TKeyCmpText);
void Test3(void);
void Test4(void);
void Test5(void);
void Test6(void);
};
template<class KeyType, class ArrayType, class S>
GLDEF_C void TestTKey<KeyType, ArrayType, S>::Test1(TKeyCmpText N, TKeyCmpText F, TKeyCmpText C)
{
// This tests the functions of the TKey classes indirectly - mostly using the Find method
// which calls SetPtr(), Set() (both trivial) and more importantly Compare(),
ArrayType* pArray=new ArrayType(KTestGranularity);
pArray->AppendL(*(const TArr<S,5>*)_TL("aa cc"));
pArray->AppendL(*(const TArr<S,5>*)_TL("bb bb"));
pArray->AppendL(*(const TArr<S,5>*)_TL("cc aa"));
KeyType NormalKey(0,N,5);
KeyType NormalKeyOffset(sizeof(S)*3,N,2) ;
KeyType FoldedKey(0,F,5);
KeyType FoldedKeyOffset(sizeof(S)*3,F,2);
KeyType CollatedKey(0,C,5);
KeyType CollatedKeyOffset(sizeof(S)*3,C,2);
TInt pos;
test(pArray->Find(*(const TArr<S,5>*)_TL("aa cc"), NormalKey, pos)==0);
test(pos==0);
test(pArray->Find(*(const TArr<S,5>*)_TL("bb bb"), NormalKey, pos)==0);
test(pos==1);
test(pArray->Find(*(const TArr<S,5>*)_TL("cc aa"), NormalKey, pos)==0);
test(pos==2);
test(pArray->Find(*(const TArr<S,5>*)_TL("BB BB"), NormalKey, pos)!=0);
test(pArray->Find(*(const TArr<S,5>*)_TL("___cc"), NormalKeyOffset, pos)==0);
test(pos==0);
test(pArray->Find(*(const TArr<S,5>*)_TL("___bb"), NormalKeyOffset, pos)==0);
test(pos==1);
test(pArray->Find(*(const TArr<S,5>*)_TL("___aa"), NormalKeyOffset, pos)==0);
test(pos==2);
test(pArray->Find(*(const TArr<S,5>*)_TL("___ax"), NormalKeyOffset, pos)!=0);
test(pArray->Find(*(const TArr<S,5>*)_TL("aa cc"), FoldedKey, pos)==0);
test(pos==0);
test(pArray->Find(*(const TArr<S,5>*)_TL("bb bb"), FoldedKey, pos)==0);
test(pos==1);
test(pArray->Find(*(const TArr<S,5>*)_TL("cc aa"), FoldedKey, pos)==0);
test(pos==2);
test(pArray->Find(*(const TArr<S,5>*)_TL("___CC"), FoldedKeyOffset, pos)==0);
test(pos==0);
test(pArray->Find(*(const TArr<S,5>*)_TL("___bB"), FoldedKeyOffset, pos)==0);
test(pos==1);
test(pArray->Find(*(const TArr<S,5>*)_TL("___Aa"), FoldedKeyOffset, pos)==0);
test(pos==2);
test(pArray->Find(*(const TArr<S,5>*)_TL("___ax"), FoldedKeyOffset, pos)!=0);
test(pArray->Find(*(const TArr<S,5>*)_TL("aa cc"), CollatedKey, pos)==0);
test(pos==0);
test(pArray->Find(*(const TArr<S,5>*)_TL("bb bb"), CollatedKey, pos)==0);
test(pos==1);
test(pArray->Find(*(const TArr<S,5>*)_TL("cc aa"), CollatedKey, pos)==0);
test(pos==2);
test(pArray->Find(*(const TArr<S,5>*)_TL("___cc"), CollatedKeyOffset, pos)==0);
test(pos==0);
test(pArray->Find(*(const TArr<S,5>*)_TL("___bb"), CollatedKeyOffset, pos)==0);
test(pos==1);
test(pArray->Find(*(const TArr<S,5>*)_TL("___aa"), CollatedKeyOffset, pos)==0);
test(pos==2);
test(pArray->Find(*(const TArr<S,5>*)_TL("___ax"), CollatedKeyOffset, pos)!=0);
delete pArray;
}
template<class KeyType, class ArrayType, class S>
GLDEF_C void TestTKey<KeyType, ArrayType, S>::Test2(TKeyCmpText N, TKeyCmpText F, TKeyCmpText C)
{
// This tests the functions of the TKey classes indirectly - mostly using the Find method
// which calls SetPtr(), Set() (both trivial) and more importantly Compare(),
ArrayType* pArray=new ArrayType(KTestGranularity);
pArray->AppendL(*(S(*))_TL("aa cc"), 5*sizeof(S));
pArray->AppendL(*(S(*))_TL("bb bbb"), 6*sizeof(S));
pArray->AppendL(*(S(*))_TL("cc aaaa"), 7*sizeof(S));
KeyType NormalKey5(0,N,5);
KeyType NormalKey6(0,N,6);
KeyType NormalKey7(0,N,7);
KeyType NormalKeyOffset(sizeof(S)*3,N,2);
KeyType FoldedKey5(0,F,5);
KeyType FoldedKey6(0,F,6);
KeyType FoldedKey7(0,F,7);
KeyType FoldedKeyOffset(sizeof(S)*3,F,2);
KeyType CollatedKey5(0,C,5);
KeyType CollatedKey6(0,C,6);
KeyType CollatedKey7(0,C,7);
KeyType CollatedKeyOffset(sizeof(S)*3,C,2);
TInt pos;
test(pArray->Find(*(S(*))_TL("aa cc"), NormalKey5, pos)==0);
test(pos==0);
test(pArray->Find(*(S(*))_TL("bb bbb"), NormalKey6, pos)==0);
test(pos==1);
test(pArray->Find(*(S(*))_TL("cc aaaa"), NormalKey7, pos)==0);
test(pos==2);
test(pArray->Find(*(S(*))_TL("BB BB"), NormalKey5, pos)!=0);
test(pArray->Find(*(S(*))_TL("___cc"), NormalKeyOffset, pos)==0);
test(pos==0);
test(pArray->Find(*(S(*))_TL("___bb"), NormalKeyOffset, pos)==0);
test(pos==1);
test(pArray->Find(*(S(*))_TL("___aa"), NormalKeyOffset, pos)==0);
test(pos==2);
test(pArray->Find(*(S(*))_TL("___ax"), NormalKeyOffset, pos)!=0);
test(pArray->Find(*(S(*))_TL("aa cc"), FoldedKey5, pos)==0);
test(pos==0);
test(pArray->Find(*(S(*))_TL("bb bbb"), FoldedKey6, pos)==0);
test(pos==1);
test(pArray->Find(*(S(*))_TL("cc aaaa"), FoldedKey7, pos)==0);
test(pos==2);
test(pArray->Find(*(S(*))_TL("___CC"), FoldedKeyOffset, pos)==0);
test(pos==0);
test(pArray->Find(*(S(*))_TL("___bB"), FoldedKeyOffset, pos)==0);
test(pos==1);
test(pArray->Find(*(S(*))_TL("___Aa"), FoldedKeyOffset, pos)==0);
test(pos==2);
test(pArray->Find(*(S(*))_TL("___ax"), FoldedKeyOffset, pos)!=0);
test(pArray->Find(*(S(*))_TL("aa cc"), CollatedKey5, pos)==0);
test(pos==0);
test(pArray->Find(*(S(*))_TL("bb bbb"), CollatedKey6, pos)==0);
test(pos==1);
test(pArray->Find(*(S(*))_TL("cc aaaa"), CollatedKey7, pos)==0);
test(pos==2);
test(pArray->Find(*(S(*))_TL("___cc"), CollatedKeyOffset, pos)==0);
test(pos==0);
test(pArray->Find(*(S(*))_TL("___bb"), CollatedKeyOffset, pos)==0);
test(pos==1);
test(pArray->Find(*(S(*))_TL("___aa"), CollatedKeyOffset, pos)==0);
test(pos==2);
test(pArray->Find(*(S(*))_TL("___ax"), CollatedKeyOffset, pos)!=0);
delete pArray;
}
template<class KeyType, class ArrayType, class S>
GLDEF_C void TestTKey<KeyType, ArrayType, S>::Test3(void)
{
ArrayType* pArray=new ArrayType(KTestGranularity);
Record rec1, rec2, rec3;
rec1.name=(_TL("fred"));
rec1.age=5;
rec1.code='A';
rec2.name=(_TL("bill"));
rec2.age=0x7fffffff;
rec2.code='Z';
rec3.name=(_TL("bert"));
rec3.age=-5;
rec3.code='X';
pArray->AppendL(rec1);
pArray->AppendL(rec2);
pArray->AppendL(rec3);
TInt pos;
KeyType codekey(_FOFF(Record, code),ECmpNormal,1);
test(pArray->Find(rec1, codekey, pos)==0);
test(pos==0);
test(pArray->Find(rec2, codekey, pos)==0);
test(pos==1);
test(pArray->Find(rec3, codekey, pos)==0);
test(pos==2);
KeyType agekey(_FOFF(Record, age), ECmpTInt32);
test(pArray->Find(rec1, agekey, pos)==0);
test(pos==0);
test(pArray->Find(rec2, agekey, pos)==0);
test(pos==1);
test(pArray->Find(rec3, agekey, pos)==0);
test(pos==2);
rec1.age=-50; // march 95 - this isn't allowed , lucky that it works
test(pArray->Find(rec1, agekey, pos)!=0);
rec1.age=5;
pArray->Sort(agekey);
test(pArray->Find(rec1, agekey, pos)==0);
test(pos==1);
test(pArray->Find(rec2, agekey, pos)==0);
test(pos==2);
test(pArray->Find(rec3, agekey, pos)==0);
test(pos==0);
delete pArray;
}
template<class KeyType, class ArrayType, class S>
GLDEF_C void TestTKey<KeyType, ArrayType, S>::Test4(void)
{
ArrayType* pArray=new ArrayType(KTestGranularity);
Record rec1, rec2, rec3;
rec1.name=(_TL("fred"));
rec1.age=5;
rec1.code='A';
rec2.name=(_TL("bill"));
rec2.age=0x7fffffff;
rec2.code='Z';
rec3.name=(_TL("bert"));
rec3.age=-5;
rec3.code='X';
pArray->AppendL(rec1, sizeof(Record));
pArray->AppendL(rec2, sizeof(Record));
pArray->AppendL(rec3, sizeof(Record));
TInt pos;
KeyType codekey(_FOFF(Record, code),ECmpNormal,1);
test(pArray->Find(rec1, codekey, pos)==0);
test(pos==0);
test(pArray->Find(rec2, codekey, pos)==0);
test(pos==1);
test(pArray->Find(rec3, codekey, pos)==0);
test(pos==2);
KeyType agekey(_FOFF(Record, age), ECmpTInt32);
test(pArray->Find(rec1, agekey, pos)==0);
test(pos==0);
test(pArray->Find(rec2, agekey, pos)==0);
test(pos==1);
test(pArray->Find(rec3, agekey, pos)==0);
test(pos==2);
rec1.age=-50; // march 95 - this isn't allowed - lucky to get away with it
test(pArray->Find(rec1, agekey, pos)!=0);
rec1.age=5;
pArray->Sort(agekey);
test(pArray->Find(rec1, agekey, pos)==0);
test(pos==1);
test(pArray->Find(rec2, agekey, pos)==0);
test(pos==2);
test(pArray->Find(rec3, agekey, pos)==0);
test(pos==0);
delete pArray;
}
template<class KeyType, class ArrayType, class S>
GLDEF_C void TestTKey<KeyType, ArrayType, S>::Test5(void)
{
// test the numeric enumeration types
ArrayType* pArray=new ArrayType(KTestGranularity);
TInt pos;
KeyType TIntKey(_FOFF(Record2, tint), ECmpTInt);
KeyType TUintKey(_FOFF(Record2, tuint), ECmpTUint);
KeyType TInt8Key(_FOFF(Record2, tint8), ECmpTInt8);
KeyType TUint8Key(_FOFF(Record2, tuint8), ECmpTUint8);
KeyType TInt16Key(_FOFF(Record2, tint16), ECmpTInt16);
KeyType TUint16Key(_FOFF(Record2, tuint16), ECmpTUint16);
KeyType TInt32Key(_FOFF(Record2, tint32), ECmpTInt32);
KeyType TUint32Key(_FOFF(Record2, tuint32), ECmpTUint32);
SetRecordData();
pArray->AppendL(Rec1);
pArray->AppendL(Rec2);
pArray->AppendL(Rec3);
pArray->AppendL(Rec4);
pArray->Sort(TIntKey);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TIntKey, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TIntKey, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TIntKey, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TIntKey, pos)==0);
test(pos==3);
pArray->Sort(TUintKey);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUintKey, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUintKey, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUintKey, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUintKey, pos)==0);
test(pos==3);
pArray->Sort(TInt8Key);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TInt8Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TInt8Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TInt8Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TInt8Key, pos)==0);
test(pos==3);
pArray->Sort(TUint8Key);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUint8Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUint8Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUint8Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUint8Key, pos)==0);
test(pos==3);
pArray->Sort(TInt16Key);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TInt16Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TInt16Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TInt16Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TInt16Key, pos)==0);
test(pos==3);
pArray->Sort(TUintKey);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUint16Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUint16Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUint16Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUint16Key, pos)==0);
test(pos==3);
pArray->Sort(TInt32Key);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TInt32Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TInt32Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TInt32Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TInt32Key, pos)==0);
test(pos==3);
pArray->Sort(TUint32Key);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUint32Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUint32Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUint32Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUint32Key, pos)==0);
test(pos==3);
delete pArray;
}
template<class KeyType, class ArrayType, class S>
GLDEF_C void TestTKey<KeyType, ArrayType, S>::Test6(void)
{
// test the numeric enumeration types
ArrayType* pArray=new ArrayType(KTestGranularity);
TInt pos;
KeyType TIntKey(_FOFF(Record2, tint), ECmpTInt);
KeyType TUintKey(_FOFF(Record2, tuint), ECmpTUint);
KeyType TInt8Key(_FOFF(Record2, tint8), ECmpTInt8);
KeyType TUint8Key(_FOFF(Record2, tuint8), ECmpTUint8);
KeyType TInt16Key(_FOFF(Record2, tint16), ECmpTInt16);
KeyType TUint16Key(_FOFF(Record2, tuint16), ECmpTUint16);
KeyType TInt32Key(_FOFF(Record2, tint32), ECmpTInt32);
KeyType TUint32Key(_FOFF(Record2, tuint32), ECmpTUint32);
SetRecordData();
pArray->AppendL(Rec1, sizeof(Record2));
pArray->AppendL(Rec2, sizeof(Record2));
pArray->AppendL(Rec3, sizeof(Record2));
pArray->AppendL(Rec4, sizeof(Record2));
pArray->Sort(TIntKey);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TIntKey, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TIntKey, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TIntKey, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TIntKey, pos)==0);
test(pos==3);
pArray->Sort(TUintKey);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUintKey, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUintKey, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUintKey, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUintKey, pos)==0);
test(pos==3);
pArray->Sort(TInt8Key);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TInt8Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TInt8Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TInt8Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TInt8Key, pos)==0);
test(pos==3);
pArray->Sort(TUint8Key);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUint8Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUint8Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUint8Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUint8Key, pos)==0);
test(pos==3);
pArray->Sort(TInt16Key);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TInt16Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TInt16Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TInt16Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TInt16Key, pos)==0);
test(pos==3);
pArray->Sort(TUintKey);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUint16Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUint16Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUint16Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUint16Key, pos)==0);
test(pos==3);
pArray->Sort(TInt32Key);
// order should be 4,3,2,1
test(pArray->Find(Rec4, TInt32Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec3, TInt32Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec2, TInt32Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec1, TInt32Key, pos)==0);
test(pos==3);
pArray->Sort(TUint32Key);
// order should be 1,2,3,4
test(pArray->Find(Rec1, TUint32Key, pos)==0);
test(pos==0);
test(pArray->Find(Rec2, TUint32Key, pos)==0);
test(pos==1);
test(pArray->Find(Rec3, TUint32Key, pos)==0);
test(pos==2);
test(pArray->Find(Rec4, TUint32Key, pos)==0);
test(pos==3);
delete pArray;
}
GLDEF_C TInt E32Main()
{
test.Title();
test.Start(_L("Fixed key class with a flat array of TText8"));
typedef CArrayFixFlat<TArr<TText8,5> > aFixedFlatArrayOfTText8;
TestTKey<TKeyArrayFix, aFixedFlatArrayOfTText8, TText8> T1;
T1.Test1(ECmpNormal8, ECmpFolded8, ECmpCollated8);
test.Next(_L("Fixed key class with a flat array of TText16"));
typedef CArrayFixFlat<TArr<TText16,5> > aFixedFlatArrayOfTText16;
TestTKey<TKeyArrayFix, aFixedFlatArrayOfTText16, TText16> T2;
T2.Test1(ECmpNormal16, ECmpFolded16, ECmpCollated16);
test.Next(_L("Fixed key class with a flat array of TText"));
typedef CArrayFixFlat<TArr<TText,5> > aFixedFlatArrayOfTText;
TestTKey<TKeyArrayFix, aFixedFlatArrayOfTText, TText> T3;
T3.Test1(ECmpNormal, ECmpFolded, ECmpCollated);
test.Next(_L("Fixed key class with a segmented array of TText8"));
typedef CArrayFixSeg<TArr<TText8,5> > aFixedSegmentedArrayOfTText8;
TestTKey<TKeyArrayFix, aFixedSegmentedArrayOfTText8, TText8> T4;
T4.Test1(ECmpNormal8, ECmpFolded8, ECmpCollated8);
test.Next(_L("Fixed key class with a segmented array of TText16"));
typedef CArrayFixSeg<TArr<TText16,5> > aFixedSegmentedArrayOfTText16;
TestTKey<TKeyArrayFix, aFixedSegmentedArrayOfTText16, TText16> T5;
T5.Test1(ECmpNormal16, ECmpFolded16, ECmpCollated16);
test.Next(_L("Fixed key class with a segmented array of TText"));
typedef CArrayFixSeg<TArr<TText,5> > aFixedSegmentedArrayOfTText;
TestTKey<TKeyArrayFix, aFixedSegmentedArrayOfTText, TText> T6;
T6.Test1(ECmpNormal, ECmpFolded, ECmpCollated);
test.Next(_L("Var key with a flat array of TText8"));
typedef CArrayVarFlat<TText8> aVarFlatArrayOfTText8;
TestTKey<TKeyArrayVar, aVarFlatArrayOfTText8, TText8> T7;
T7.Test2(ECmpNormal8, ECmpFolded8, ECmpCollated8);
test.Next(_L("Var key with a flat array of TText16"));
typedef CArrayVarFlat<TText16> aVarFlatArrayOfTText16;
TestTKey<TKeyArrayVar, aVarFlatArrayOfTText16, TText16> T8;
T8.Test2(ECmpNormal16, ECmpFolded16, ECmpCollated16);
test.Next(_L("Var key with a flat array of TText"));
typedef CArrayVarFlat<TText> aVarFlatArrayOfTText;
TestTKey<TKeyArrayVar, aVarFlatArrayOfTText, TText> T9;
T9.Test2(ECmpNormal, ECmpFolded, ECmpCollated);
test.Next(_L("Var key with a segmented array of TText8"));
typedef CArrayVarSeg<TText8> aVarSegmentedArrayOfTText8;
TestTKey<TKeyArrayVar, aVarSegmentedArrayOfTText8, TText8> T10;
T10.Test2(ECmpNormal8, ECmpFolded8, ECmpCollated8);
test.Next(_L("Var key with a segmented array of TText16"));
typedef CArrayVarSeg<TText16> aVarSegmentedArrayOfTText16;
TestTKey<TKeyArrayVar, aVarSegmentedArrayOfTText16, TText16> T11;
T11.Test2(ECmpNormal16, ECmpFolded16, ECmpCollated16);
test.Next(_L("Var key with a segmented array of TText"));
typedef CArrayVarSeg<TText> aVarSegmentedArrayOfTText;
TestTKey<TKeyArrayVar, aVarSegmentedArrayOfTText, TText> T12;
T12.Test2(ECmpNormal, ECmpFolded, ECmpCollated);
test.Next(_L("Fixed key with a flat array of structs"));
typedef CArrayFixFlat<Record> aFixedFlatArrayOfRecord;
TestTKey<TKeyArrayFix, aFixedFlatArrayOfRecord, TText> T13;
T13.Test3();
test.Next(_L("Fixed key with a segmented array of structs"));
typedef CArrayFixSeg<Record> aFixedSegmentedArrayOfRecord;
TestTKey<TKeyArrayFix, aFixedSegmentedArrayOfRecord, TText> T14;
T14.Test3();
test.Next(_L("Var key with a flat array of structs"));
typedef CArrayVarFlat<Record> aVarFlatArrayOfRecord;
TestTKey<TKeyArrayVar, aVarFlatArrayOfRecord, TText> T15;
T15.Test4();
test.Next(_L("Var key with a segmented array of structs"));
typedef CArrayVarSeg<Record> aVarSegmentedArrayOfRecord;
TestTKey<TKeyArrayVar, aVarSegmentedArrayOfRecord, TText> T16;
T16.Test4();
test.Next(_L("Fixed key with a flat array of structs testing numeric types"));
typedef CArrayFixFlat<Record2> aFixedFlatArrayOfRecord2;
TestTKey<TKeyArrayFix, aFixedFlatArrayOfRecord2, TText> T17;
T17.Test5();
test.Next(_L("Var key with a flat array of structs testing numeric types"));
typedef CArrayVarFlat<Record2> aVarFlatArrayOfRecord2;
TestTKey<TKeyArrayVar, aVarFlatArrayOfRecord2, TText> T18;
T18.Test6();
test.End();
return(KErrNone);
}
/*#else
GLDEF_C TInt E32Main()
//
// Test unavailable in release build.
//
{
test.Title();
test.Start(_L("No tests for release builds"));
test.End();
return(0);
}
#endif
*/