Don't mess around with EPOCROOT until actually entering raptor so we know what the original was
Put the original epocroot back on the front of the whatcomp output. This allows what output to be
either relative or absolute depending on what your epocroot is.
/*
* Copyright (c) 1998-2009 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:
* e32tools/rombuild/r_dir.cpp
*
*/
#include <stdlib.h>
#include <string.h>
#include "r_dir.h"
#include "r_obey.h"
#include "r_rom.h"
#include "r_global.h"
// Generalised set handling
// class SetMember
TInt SetMember::TotalInSystem=0;
SetMember::~SetMember()
{
TotalInSystem--;
TRACE(TDIR,Print(EAlways,"SetMember %08x Destruct Remaining=%d\n",this,TotalInSystem));
}
void SetMember::Close()
{
delete this;
}
// class FiniteSet
FiniteSet::FiniteSet(TInt aMaxCount)
: SetMember(EFiniteSetType), iMaxCount(aMaxCount), iCount(0), iMembers(NULL)
{}
FiniteSet::FiniteSet(const FiniteSet& aSet)
: SetMember(aSet), iMaxCount(aSet.iMaxCount), iCount(0), iMembers(NULL)
{}
FiniteSet* FiniteSet::New(TInt aMaxCount)
{
FiniteSet* pS=new FiniteSet(aMaxCount);
if (pS)
pS=pS->Construct();
return pS;
}
FiniteSet* FiniteSet::Construct()
{
SetMember** pM=new SetMember*[iMaxCount];
if (!pM)
{
delete this;
return NULL;
}
iMembers=pM;
TInt i;
for(i=0; i<iMaxCount; i++)
pM[i]=NULL;
return this;
}
FiniteSet* FiniteSet::Singleton(TInt aMaxCount, const SetMember& aMember)
{
FiniteSet* pS=New(aMaxCount);
if (pS)
{
pS->iCount=1;
pS->iMembers[0]=(SetMember*)&aMember;
}
return pS;
}
FiniteSet::~FiniteSet()
{
TRACE(TDIR,Print(EAlways,"FiniteSet %08x Destruct, iCount=%d\n",this,iCount));
TInt i;
for (i=0; i<iCount; i++)
iMembers[i]->Close();
delete[] iMembers;
}
TInt FiniteSet::Find(const SetMember& aMember, TInt& anIndex) const
{
if (iCount==0)
{
anIndex=0;
return KErrNotFound;
}
TInt k=aMember.Compare(*iMembers[0]);
if (k==0)
{
anIndex=0;
return KErrNone;
}
if (k<0)
{
anIndex=0;
return KErrNotFound;
}
if (iCount==1)
{
anIndex=1;
return KErrNotFound;
}
TInt r=iCount-1;
k=aMember.Compare(*iMembers[r]);
if (k==0)
{
anIndex=r;
return KErrNone;
}
if (k>0)
{
anIndex=iCount;
return KErrNotFound;
}
if (iCount==2)
{
anIndex=1;
return KErrNotFound;
}
TInt l=0;
while(r-l>1)
{
TInt m=(l+r)>>1;
k=aMember.Compare(*iMembers[m]);
if (k==0)
{
anIndex=m;
return KErrNone;
}
if (k>0)
l=m;
else
r=m;
}
anIndex=r;
return KErrNotFound;
}
TInt FiniteSet::Compare(const SetMember& aSetMember) const
{
TInt k=Type()-aSetMember.Type();
if (k!=0)
return k;
const FiniteSet& s=(const FiniteSet&)aSetMember;
TInt c=Min(iCount,s.iCount);
TInt i;
for(i=0; i<c; i++)
{
k=iMembers[i]->Compare(s[i]);
if (k!=0)
return k;
}
return (iCount-s.iCount);
}
SetMember* FiniteSet::Copy() const
{
FiniteSet* pS=new FiniteSet(*this);
if (pS)
{
SetMember** pA=new SetMember*[iMaxCount];
if (!pA)
{
delete pS;
return NULL;
}
pS->iMembers=pA;
TInt i;
for(i=0; i<iCount; i++)
{
SetMember* pM=iMembers[i]->Copy();
if (!pM)
{
delete pS;
return NULL;
}
pA[i]=pM;
pS->iCount++;
}
}
return pS;
}
TInt FiniteSet::Find(const SetMember& aMember) const
{
TInt i;
TInt r=Find(aMember,i);
if (r<0)
return r;
return i;
}
TBool FiniteSet::SubsetOf(const FiniteSet& aSet) const
{
if (iCount>aSet.iCount)
return EFalse;
TInt i;
for(i=0; i<iCount; i++)
{
TInt j;
if (aSet.Find(*iMembers[i],j)!=KErrNone)
return EFalse;
}
return ETrue;
}
TInt FiniteSet::Intersection(const FiniteSet& aSet)
{
if (iCount==0)
return KErrNotFound;
TInt i;
for(i=0; i<iCount; i++)
{
TInt j;
if (aSet.Find(*iMembers[i],j)!=KErrNone)
Detach(i)->Close();
}
return iCount ? KErrNone : KErrNotFound;
}
TInt FiniteSet::Union(const FiniteSet& aSet)
{
TInt i;
for(i=0; i<aSet.iCount; i++)
{
const SetMember& m=*aSet.iMembers[i];
TInt j;
if (Find(m,j)!=KErrNone)
{
const SetMember* pC=m.Copy();
if (!pC)
return KErrNoMemory;
TInt r=Insert(*pC,j);
if (r!=KErrNone)
return r;
}
}
return iCount ? KErrNone : KErrNotFound;
}
TInt FiniteSet::Difference(const FiniteSet& aSet)
{
if (iCount==0)
return KErrNotFound;
TInt i;
for(i=0; i<iCount; i++)
{
TInt j;
if (aSet.Find(*iMembers[i],j)==KErrNone)
Detach(i)->Close();
}
return iCount ? KErrNone : KErrNotFound;
}
TInt FiniteSet::Add(const SetMember& aMember)
{
TInt i;
TInt r=Find(aMember,i);
if (r==KErrNotFound && Insert(aMember,i)==KErrOverflow)
return KErrOverflow;
return r;
}
TInt FiniteSet::Remove(const SetMember& aMember)
{
TInt i;
TInt r=Find(aMember,i);
if (r==KErrNone)
Detach(i)->Close();
return r;
}
SetMember* FiniteSet::Detach(TInt anIndex)
{
TInt i;
SetMember* pM=iMembers[anIndex];
for(i=anIndex; i<iCount-1; i++)
iMembers[i]=iMembers[i+1];
iCount--;
return pM;
}
TInt FiniteSet::Insert(const SetMember& aMember, TInt anIndex)
{
if (iCount==iMaxCount)
return KErrOverflow;
TInt i;
for(i=iCount-1; i>=anIndex; i--)
iMembers[i+1]=iMembers[i];
iMembers[anIndex]=(SetMember*)&aMember;
iCount++;
return KErrNone;
}
// ROMBUILD-specific stuff
inline TLinAddr ActualToRomAddress(TAny* anAddr)
{ return TLinAddr(anAddr)-TheRomMem+TheRomLinearAddress; }
// class TVariantList
TInt TVariantList::NumVariants;
THardwareVariant TVariantList::Variants[TVariantList::EMaxVariants];
void TVariantList::Setup(CObeyFile* aObey)
{
NumVariants=aObey->iNumberOfVariants;
if (NumVariants>EMaxVariants)
Print(EError,"Too many variants");
TInt i;
for(i=0; i<NumVariants; i++)
{
Variants[i]=aObey->iVariants[i]->iHardwareVariant;
}
}
TVariantList::TVariantList(THardwareVariant a)
{
iList=0;
TInt i;
for (i=0; i<NumVariants; i++)
{
if (Variants[i]<=a)
iList|=TUint(1<<i);
}
}
THardwareVariant TVariantList::Lookup() const
{
TInt i;
for (i=0; i<NumVariants; i++)
{
if (iList & TUint(1<<i))
return Variants[i];
}
return THardwareVariant(0);
}
void TVariantList::SetNumVariants(TInt aNumVariants)
{
NumVariants = aNumVariants;
if (NumVariants>EMaxVariants)
Print(EError,"Too many variants");
}
void TVariantList::SetVariants(THardwareVariant* aVariants)
{
TInt Index = NumVariants;
while(Index--)
{
Variants[Index] = aVariants[Index];
}
}
void DumpRomEntry(const TRomEntry& e)
{
char name[256];
char* d = name;
const wchar_t* s = (const wchar_t*)e.iName;
const wchar_t* sE = s + e.iNameLength;
for (; s<sE; *d++ = (char)*s++) {}
*d++ = 0;
Print(ELog, "RomEntry @ %08x: SZ=%08x A=%08x att=%02x name %s\n", &e, e.iSize, e.iAddressLin, e.iAtt, name);
}
// class Entry
TRomEntry* Entry::CreateRomEntry(char*& anAddr) const
{
TRomEntry *pE=(TRomEntry*)anAddr;
pE->iAtt=iRomNode->iAtt;
pE->iSize=iRomNode->iRomFile->iAddresses.iSize;
pE->iAddressLin=iRomNode->iRomFile->iAddresses.iRunAddr;
if (IsFile())
iRomNode->iRomFile->SetRomEntry(pE);
pE->iName[0]=0;
pE->iName[1]=0;
TInt nl=iRomNode->NameCpy((char*)pE->iName);
pE->iNameLength=(TUint8)nl;
if (Unicode)
nl<<=1;
anAddr+=Align4(KRomEntrySize+nl);
TRACE(TDIR,DumpRomEntry(*pE));
return pE;
}
const TText* Entry::Name() const
{
return iRomNode->iName;
}
// class FileEntry
FileEntry::FileEntry(const FileEntry& aFileEntry)
: Entry(aFileEntry)
{
iVariants=aFileEntry.iVariants;
iRomNode=aFileEntry.iRomNode;
}
FileEntry* FileEntry::New(TRomNode* aFile)
{
FileEntry* pE=new FileEntry();
if (pE)
{
pE->iRomNode=aFile;
pE->iVariants=TVariantList(aFile->HardwareVariant());
}
return pE;
}
TInt FileEntry::Compare(const SetMember& aMember) const
{
TInt k=Type()-aMember.Type();
if (k!=0)
return k;
FileEntry *entry=(FileEntry *)&aMember;
return (iRomNode->iIdentifier-entry->iRomNode->iIdentifier);
}
SetMember* FileEntry::Copy() const
{
return new FileEntry(*this);
}
FileEntry::~FileEntry()
{
}
// class DirEntry
DirEntry::DirEntry(const DirEntry& aDirEntry)
: Entry(aDirEntry)
{
iVariants=aDirEntry.iVariants;
iRomNode=aDirEntry.iRomNode;
iDir=aDirEntry.iDir;
}
DirEntry* DirEntry::New(TRomNode* aFile, Directory* aDir)
{
DirEntry* pE=new DirEntry();
if (pE)
{
pE->iRomNode=aFile;
pE->iVariants=aDir->iVariants;
pE->iDir=aDir;
if (aDir)
aDir->Open();
}
return pE;
}
TInt DirEntry::Compare(const SetMember& aMember) const
{
TInt k=Type()-aMember.Type();
if (k!=0)
return k;
DirEntry *entry=(DirEntry *)&aMember;
return (iDir->iIdentifier - entry->iDir->iIdentifier);
}
SetMember* DirEntry::Copy() const
{
DirEntry* pE=new DirEntry(*this);
if (pE && pE->iDir)
pE->iDir->Open();
return pE;
}
DirEntry::~DirEntry()
{
if (iDir)
iDir->Close();
}
// data structure and function for qsort
struct SortableEntry
{
unsigned int iOffset;
Entry* iEntry;
};
int compare(const void* left, const void* right)
{
const SortableEntry* le = (const SortableEntry*)left;
const SortableEntry* re = (const SortableEntry*)right;
if (le->iEntry->IsDir())
{
if (!re->iEntry->IsDir())
return -1; // dir < file
}
else
{
if (re->iEntry->IsDir())
return +1; // file > dir
}
// Both the same type of entry, sort by name.
// Sorting the 8-bit data using ASCII folding matches the sort order in terms of 16 bit
// characters provided that 8-bit data is actually CESU-8 rather than UTF-8. The two
// formats differ only when using surrogates (ie unicode values >= 0x10000). UTF-8 encodes
// an entire 32 bit value as a sequence of up to 6 bytes whereas CESU-8 encodes UTF-16
// values independently.
const char* l = (const char*)le->iEntry->Name();
const char* r = (const char*)re->iEntry->Name();
int result, lc, rc;
do {
lc = *l++;
rc = *r++;
if (lc >= 'A' && lc <= 'Z')
lc += ('a' - 'A');
if (rc >= 'A' && rc <= 'Z')
rc += ('a' - 'A');
result = lc - rc;
} while (lc && result==0);
return result;
}
TRomDir* DirEntry::CreateRomEntries(char*& anAddr) const
{
TInt i;
TInt count=iDir->Count();
TInt subdircount=0;
for(i=0; i<count; i++)
{
Entry* pE=(Entry*)&(*iDir)[i];
if (pE->IsDir())
{
subdircount++;
// Recursively build & place the subdirectories
DirEntry *pD=(DirEntry*)pE;
TRomDir *pR=pD->iDir->iRomDir;
if (!pR)
{
pR=pD->CreateRomEntries(anAddr);
pD->iDir->iRomDir=pR;
}
}
}
// Now place & build the TRomDir for this directory
TInt *pS=(TInt*)anAddr;
iDir->iRomDir=(TRomDir*)anAddr;
*pS=0;
anAddr+=sizeof(TInt);
char* offsetbase=anAddr;
SortableEntry* array=new SortableEntry [count];
if (array==0)
{
Print(EError,"Failed to allocate array of SortableEntry\n");
exit(-1);
}
for(i=0; i<count; i++)
{
Entry* pE=(Entry*)&(*iDir)[i];
array[i].iOffset=anAddr-offsetbase;
array[i].iEntry=pE;
TRomEntry *pR=pE->CreateRomEntry(anAddr);
if (pE->IsDir())
{
TRomDir *pD=((DirEntry*)pE)->iDir->iRomDir;
if (pD)
pR->iAddressLin=ActualToRomAddress(pD);
else
Print(EError,"Failed to fix up subdirectory address\n");
}
}
*pS=TInt(anAddr-(char*)pS-sizeof(TInt));
// Emit table of offsets for the subdirs and files in sorted order
if (gSortedRomFs)
{
TInt filecount=count-subdircount;
if (filecount>65535 || subdircount>65535)
{
Print(EError,"Too many files or subdirectories\n");
exit(-1);
}
TUint16* ptr=(TUint16*)anAddr;
*ptr++=(TUint16)subdircount;
*ptr++=(TUint16)filecount;
qsort(array,count,sizeof(SortableEntry),&compare);
for (i=0; i<count; i++)
{
unsigned int scaledOffset = array[i].iOffset>>2;
if ((array[i].iOffset & 3) != 0 || scaledOffset > 65535)
Print(EError, "Bad offset into directory\n");
*ptr++ = (TUint16)scaledOffset;
}
anAddr=(char*)ALIGN4((int)ptr);
}
delete [] array;
return (TRomDir*)pS;
}
// class Directory
TInt Directory::DirectoryCount=0;
Directory::Directory(TInt aMaxCount)
: FiniteSet(aMaxCount), iRomDir(NULL), iAccessCount(1)
{
iIdentifier=Directory::DirectoryCount++;
}
Directory* Directory::New(TInt aMaxCount, TVariantList aList)
{
Directory *pD=new Directory(aMaxCount);
if (pD)
{
pD->iVariants=aList;
pD=(Directory*)pD->Construct();
}
return pD;
}
Directory::~Directory()
{
TRACE(TDIR,Print(EAlways,"Directory %08x Destruct\n",this));
}
void Directory::Open()
{
iAccessCount++;
TRACE(TDIR,Print(EAlways,"Directory %08x Open() access count=%d\n",this,iAccessCount));
}
void Directory::Close()
{
TRACE(TDIR,Print(EAlways,"Directory %08x Close() access count=%d\n",this,iAccessCount));
if (--iAccessCount==0)
delete this;
}
TInt Directory::Compile(const FiniteSet& aSet)
{
TInt i;
TInt count=aSet.Count();
for(i=0; i<count; i++)
{
Entry *pE=(Entry*)&aSet[i];
if (iVariants<=pE->Variants())
{
Entry *pN=(Entry*)pE->Copy();
if (!pN)
return KErrNoMemory;
pN->Restrict(iVariants);
TInt r=Add(*pN);
if (r==KErrOverflow)
return r;
}
}
return KErrNone;
}
TInt Directory::Merge(const Directory& aDir)
{
TInt i;
TInt r=Find(aDir,i);
if (r==KErrNone)
{
((Directory*)iMembers[i])->iVariants.Union(aDir.iVariants);
return KErrAlreadyExists;
}
else if (Insert(aDir,i)==KErrOverflow)
return KErrOverflow;
return KErrNone;
}
// class RomFileStructure
RomFileStructure::RomFileStructure(TInt aMaxCount)
: FiniteSet(aMaxCount)
{}
RomFileStructure::~RomFileStructure()
{
}
RomFileStructure* RomFileStructure::New(TInt aMaxCount)
{
RomFileStructure* pS=new RomFileStructure(aMaxCount);
if (pS)
pS=(RomFileStructure*)pS->Construct();
return pS;
}
void RomFileStructure::Destroy()
{
}
TInt RomFileStructure::ProcessDirectory(TRomNode* aDir)
{
TRACE(TSCRATCH, Print(EAlways, "ProcessDirectory (%08x) %s\n",aDir,aDir->iName));
TRACE(TDIR,Print(EAlways,"ProcessDirectory %s\nInitial:\n",aDir->iName));
TRACE(TDIR,DebugPrint());
TInt dirs=0;
TInt files=0;
aDir->CountDirectory(files,dirs);
TInt maxSize=files+dirs*TVariantList::NumVariants;
TRACE(TDIR,Print(EAlways,"files=%d dirs=%d maxSize=%d\n",files,dirs,maxSize));
RomFileStructure* pS=New(maxSize);
if (!pS)
return KErrNoMemory;
TInt r=aDir->ProcessDirectory(pS);
TRACE(TDIR,Print(EAlways,"FileList:\n"));
TRACE(TDIR,pS->DebugPrint());
Directory* dir[TVariantList::EMaxVariants];
TInt v;
for(v=0; v<TVariantList::NumVariants; v++)
{
TVariantList vList(v);
Directory *pD=Directory::New(files+dirs,vList);
if (!pD)
return KErrNoMemory;
dir[v]=pD;
r=pD->Compile(*pS);
if (r!=KErrNone)
return r;
TRACE(TDIR,Print(EAlways,"Variant %d Directory:\n",v));
TRACE(TDIR,pD->DebugPrint());
}
pS->Close();
Directory *pX=Directory::New(TVariantList::NumVariants,TVariantList());
if (!pX)
return KErrNoMemory;
for(v=0; v<TVariantList::NumVariants; v++)
{
if (dir[v]->Empty())
r=KErrAlreadyExists;
else
r=pX->Merge(*dir[v]);
if (r==KErrAlreadyExists)
{
dir[v]->Close();
dir[v]=NULL;
}
else if (r!=KErrNone)
return r;
}
TRACE(TDIR,Print(EAlways,"Final Directories:\n",v));
TRACE(TDIR,pX->DebugPrint());
TInt count=pX->Count();
TInt i;
for(i=0; i<count; i++)
{
Directory* pD=(Directory*)&(*pX)[i];
DirEntry* pE=DirEntry::New(aDir,pD);
if (!pE)
return KErrNoMemory;
r=Add(*pE); // accumulate into the caller
if (r==KErrOverflow)
return r;
}
pX->Close();
return KErrNone;
}
// DEBUG
void FileEntry::DebugPrint() const
{
Print(EAlways,"FileEntry %08x %08x %s\n",iRomNode,iVariants.Mask(),iRomNode->iName);
}
void DirEntry::DebugPrint() const
{
Print(EAlways,"DirEntry %08x %08x %08x %s\n",iRomNode,iVariants.Mask(),iDir,iRomNode->iName);
}
void FiniteSet::DebugPrint() const
{
if (Count()==0)
Print(EAlways,"FiniteSet 0\n");
else
{
Print(EAlways,"FiniteSet %d {\n",Count());
TInt i;
for (i=0; i<Count(); i++)
{
iMembers[i]->DebugPrint();
}
Print(EAlways,"}\n");
}
}
void Directory::DebugPrint() const
{
Print(EAlways,"Directory %08x %08x\n",iVariants.Mask(),iRomDir);
FiniteSet::DebugPrint();
}