// 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_varray.cpp
// Overview:
// Test variable record length array classes.
// API Information:
// CArrayVarFlat, CArrayVarSeg.
// Details:
// - Create an array of variable length text using a flat dynamic & segmented
// buffer and verify that:
// - number of elements held in the array is 0.
// - array is compressed and reset as expected.
// - the elements of the array are sorted as expected.
// - insertion of a text character into the array at specified position
// and length of the array is as expected.
// - return value is 0 when available element is searched using sequential
// search technique within the array.
// - removal of first element from the array is successful.
// - number of elements held in the array is 1 after appending a single
// element at the end of empty array.
// - insertion of a single element with specified key is successful.
// - the element is found when searched using binary search technique
// - KErrAlreadyExists is returned if an element is inserted with the same
// key already exists within the array.
// - Create an array of variable length text character implemented using a flat
// dynamic & segmented buffer.
// - append some strings onto the end of the array, check the contents and
// number of elements held in the array are as expected.
// - insert some strings and verify that the change in the content of array
// and number of elements held in the array are as expected.
// - remove a single, multiple elements from the array and verify that the
// Delete method is as expected.
// - Create an array of variable length text character contained within a flat
// dynamic & segmented buffer.
// - append some strings of specified length onto the end of the array, compress
// the array and verify that the number of elements held in the array is as specified.
// - insert a string at specified location, check the contents and reset the array.
// - append some strings at the end, insert some strings at specified position,
// compress the array and verify that content, number of strings in the array
// are as expected.
// - test that the number of elements and contents of the array are sorted as expected.
// - verify the correct position of the element and return value is zero when
// an element is found using binary, sequential search technique and nonzero
// if not present in the array.
// - insert some strings at the specified location and check that correct position
// is returned when searched using binary search technique.
// - Create an array of variable length integer contained within a flat dynamic &
// segmented buffer.
// - insert some elements with same key which is already present within the array
// and check that KErrAlreadyExists is returned.
// - Test whether the heap has been corrupted by all the tests.
// Platforms/Drives/Compatibility:
// All
// Assumptions/Requirement/Pre-requisites:
// Failures and causes:
// Base Port information:
//
//
#include <e32std.h>
#include <e32std_private.h>
#include <e32base.h>
#include <e32base_private.h>
#include <e32test.h>
#include <e32svr.h>
#include <e32ver.h>
const TInt KTestGranularity=0x02;
LOCAL_D RTest test(_L("T_VARRAY"));
LOCAL_C void testAllMethods(CArrayVar<TText>& aVar)
{
test.Next(_L("Test all methods"));
test(aVar.Count()==0);
aVar.Compress();
test(TRUE);
aVar.Reset();
test(TRUE);
TKeyArrayVar kk(sizeof(TText),ECmpNormal,0);
test(TRUE);
aVar.Sort(kk);
test(TRUE);
const TText* aa=_S("a");
aVar.InsertL(0,*aa,sizeof(TText));
test(aVar.Length(0)==sizeof(TText));
test(TRUE);
TInt pp;
test(aVar.Find(*aa,kk,pp)==0);
test(pp==0);
aVar.Delete(0);
aVar.AppendL(*aa,1);
test(aVar.Count()==1);
aVar.InsertIsqAllowDuplicatesL(*aa,0,kk);
test(TRUE);
test(aVar.FindIsq(*aa,kk,pp)==0);
test(pp==0);
TRAPD(r,aVar.InsertIsqL(*aa,0,kk));
test(r==KErrAlreadyExists);
}
LOCAL_C void test1(CArrayVar<TText>& aVar)
//
{
test.Next(_L("AppendL and InsertL chars"));
aVar.AppendL(*_S("abcd"),5*sizeof(TText)); // abcd
TBuf<0x10> des1(&aVar[0]);
test(des1==_L("abcd"));
test(aVar.Count()==1);
aVar.AppendL(*_S("wxyz"),5*sizeof(TText)); // abcd wxyz
des1=&aVar[1];
test(des1==_L("wxyz"));
test(aVar.Count()==2);
aVar.InsertL(1,*_S("ef"),3*sizeof(TText)); // abcd ef wxyz
des1=&aVar[1];
test(des1==_L("ef"));
test(aVar.Count()==3);
aVar.AppendL(*_S("z"),2*sizeof(TText)); // abcd ef wxyz z
des1=&aVar[3];
test(des1==_L("z"));
aVar.InsertL(0,*_S("y"),2*sizeof(TText)); // y abcd ef wxyz z
des1=&aVar[0];
test(des1==_L("y"));
test(aVar.Length(0)==2*sizeof(TText));
test(aVar.Length(1)==5*sizeof(TText));
test(aVar.Length(2)==3*sizeof(TText));
test(aVar.Length(3)==5*sizeof(TText));
test(aVar.Length(4)==2*sizeof(TText));
des1=&aVar[1];
test(des1==_L("abcd"));
test(aVar.Count()==5);
//
test.Next(_L("Delete chars"));
aVar.Delete(3,1); // y abcd ef z
des1=&aVar[2];
test(des1==_L("ef"));
des1=&aVar[1];
test(des1==_L("abcd"));
des1=&aVar[3];
test(des1==_L("z"));
aVar.Delete(1,2); // y z
des1=&aVar[0];
test(des1==_L("y"));
des1=&aVar[1];
test(des1==_L("z"));
test(aVar.Count()==2);
}
LOCAL_C void test2(CArrayVar<TText>& aVar)
//
{
test.Next(_L("Reset and Compress"));
TBuf<0x10> des1(_L("abcde"));
TBuf<0x10> des2(_L("fgh"));
TBuf<0x10> des3(_L("wxyz"));
aVar.AppendL(*(TText*)des1.Ptr(),des1.Size());
aVar.AppendL(*(TText*)des2.Ptr(),des2.Size());
aVar.Compress();
test(aVar.Count()==2);
TPtrC des4((TText*)&aVar[0],des1.Length());
test(des1==des4);
TPtrC des5((TText*)&aVar[1],des2.Length());
test(des2==des5);
aVar.InsertL(1,*(TText*)des3.Ptr(),des3.Size());
test(aVar.Count()==3);
TPtrC des6((TText*)&aVar[0],des1.Length());
test(des1==des6);
TPtrC des7((TText*)&aVar[2],des2.Length());
test(des2==des7);
TPtrC des8((TText*)&aVar[1],des3.Length());
test(des3==des8);
aVar.Reset();
TBuf<0x10> buf1=_L("abcdef");
TBuf<0x10> buf2=_L("wxyz");
TBuf<0x10> buf3=_L("lmnop");
TBuf<0x10> buf4=_L("aa");
aVar.AppendL(*buf1.Ptr(),buf1.Size());
aVar.InsertL(0,*buf2.Ptr(),buf2.Size());
aVar.AppendL(*buf3.Ptr(),buf3.Size());
aVar.InsertL(1,*buf4.Ptr(),buf4.Size());
aVar.Compress();
TPtrC rd1((TText*)&aVar[2],buf1.Length());
test(buf1==rd1);
TPtrC rd2((TText*)&aVar[0],buf2.Length());
test(buf2==rd2);
TPtrC rd3((TText*)&aVar[3],buf3.Length());
test(buf3==rd3);
TPtrC rd4((TText*)&aVar[1],buf4.Length());
test(buf4==rd4);
test(aVar.Count()==4);
TKeyArrayVar kk(0,ECmpNormal,3); // Compare 3 characters
TKeyArrayVar kk1(0,ECmpNormal,2); // Compare 2 characters
test.Next(_L("Sort"));
aVar.Sort(kk);
TPtrC rd5((TText*)&aVar[1],buf1.Length());
test(buf1==rd5);
TPtrC rd6((TText*)&aVar[3],buf2.Length());
test(buf2==rd6);
TPtrC rd7((TText*)&aVar[2],buf3.Length());
test(buf3==rd7);
TPtrC rd8((TText*)&aVar[0],buf4.Length());
test(buf4==rd8);
test(aVar.Count()==4);
test.Next(_L("Find and FindIsq"));
TBuf<0x10> buf5=_L("ffff");
test(aVar.InsertIsqL(*(TText*)buf5.Ptr(),buf5.Size(),kk)==2);
TRAPD(r,aVar.InsertIsqL(*(TText*)buf5.Ptr(),buf5.Size(),kk))
test(r==KErrAlreadyExists);
test(aVar.InsertIsqAllowDuplicatesL(*(TText*)buf5.Ptr(),buf5.Size(),kk)==3);
TInt aPos;
test(aVar.Find(*_S("abc"),kk,aPos)==0); // Second parameter 'aLength' is unused.
test(aPos==1);
test(aVar.Find(*_S("aa"),kk1,aPos)==0);
test(aPos==0);
test(aVar.Find(*_S("wxyz"),kk,aPos)==0);
test(aPos==5);
test(aVar.Find(*_S("fgh"),kk,aPos)!=0); // Returns !=0 if string not found.
test(aPos==6); // Not present in list, aPos set to last position
test(aVar.Find(*_S("ffff"),kk,aPos)==0);
test(aPos==2);
test(aVar.Find(*_S("lmn"),kk,aPos)==0);
test(aPos==4);
test(aVar.FindIsq(*_S("abc"),kk,aPos)==0);
test(aPos==1);
test(aVar.FindIsq(*_S("aa"),kk1,aPos)==0);
test(aPos==0);
test(aVar.FindIsq(*_S("wxyz"),kk,aPos)==0);
test(aPos==5);
test(aVar.FindIsq(*_S("fgh"),kk,aPos)!=0); // Returns result of last test
test(aPos==4); // Not present in list, aPos set to last position tested
TBuf<0x10> buf7=_L("fgh");
test(aVar.InsertIsqL(*(TText*)buf7.Ptr(),buf7.Size(),kk)==4);
test(aVar.FindIsq(*_S("fgh"),kk,aPos)==0); // Returns result of last test
test(aPos==4);
test(aVar.FindIsq(*_S("ffff"),kk,aPos)==0);
test(aPos==3);
test(aVar.FindIsq(*_S("lmn"),kk,aPos)==0);
test(aPos==5);
}
LOCAL_C void test3(CArrayVar<TInt>& aVar)
{
test.Next(_L("InsertIsqL"));
TKeyArrayVar kk(0,ECmpTInt);
TInt pos=0;
TInt mod=47;
TInt inc=23;
TInt i=0;
FOREVER
{
TInt ret;
if (i&1)
TRAP(ret,aVar.InsertIsqL(i,sizeof(TInt),kk))
else
{
TRAP(ret,pos=aVar.InsertIsqL(i,sizeof(TInt),kk))
if (ret==KErrNone)
test(aVar[pos]==i);
}
if (ret==KErrAlreadyExists)
break;
i=(i+inc)%mod;
}
for(i=0;i<mod;i++)
{
pos=(-1);
test(aVar.FindIsq(i,kk,pos)==0);
test(pos==i);
TRAPD(r,aVar.InsertIsqL(i,sizeof(TInt),kk))
test(r==KErrAlreadyExists);
}
}
GLDEF_C TInt E32Main()
//
// Test the variable record length array classes.
//
{
test.Title();
__UHEAP_MARK;
test.Start(_L("class CArrayFixFlat"));
//
CArrayVarFlat<TText>* pVarFlat=new CArrayVarFlat<TText>(KTestGranularity);
if (pVarFlat==NULL)
test.Panic(_L("Allocating array"));
testAllMethods(*pVarFlat);
delete pVarFlat;
//
CArrayVarFlat<TText>* pVarFlatChar=new CArrayVarFlat<TText>(KTestGranularity);
test1(*pVarFlatChar);
delete pVarFlatChar;
//
CArrayVarFlat<TText>* pVarFlatArr=new CArrayVarFlat<TText>(KTestGranularity);
test2(*pVarFlatArr);
delete pVarFlatArr;
//
CArrayVarFlat<TInt>* pVarFlatInt=new CArrayVarFlat<TInt>(KTestGranularity);
test3(*pVarFlatInt);
delete pVarFlatInt;
//
test.Next(_L("class CArrayVarSeg"));
CArrayVarSeg<TText>* pVarSeg=new CArrayVarSeg<TText>(KTestGranularity);
if (pVarSeg==NULL)
test.Panic(_L("Allocating array"));
testAllMethods(*pVarSeg);
delete pVarSeg;
//
CArrayVarSeg<TText>* pVarSegChar=new CArrayVarSeg<TText>(KTestGranularity);
test1(*pVarSegChar);
delete pVarSegChar;
//
CArrayVarSeg<TText>* pVarSegArr=new CArrayVarSeg<TText>(KTestGranularity);
test2(*pVarSegArr);
delete pVarSegArr;
//
CArrayVarSeg<TInt>* pVarSegInt=new CArrayVarSeg<TInt>(KTestGranularity);
test3(*pVarSegInt);
delete pVarSegInt;
//
test.End();
__UHEAP_MARKEND;
return(0);
}