C++ Ptr::size方法代码示例

void SpringboardBuilder::generateBranch(Address from, Address to, codeGen &gen) {
  gen.invalidate();
  gen.allocate(16);

  gen.setAddrSpace(addrSpace_);
  gen.setAddr(from);

  insnCodeGen::generateBranch(gen, from, to);

  springboard_cerr << "Generated springboard branch " << hex << from << "->" << to << dec << endl;

#if 0
#include "InstructionDecoder.h"
    using namespace Dyninst::InstructionAPI;
    Address base = 0;
    InstructionDecoder deco(gen.start_ptr(),gen.size(),Arch_aarch64);
    Instruction::Ptr insn = deco.decode();
    while(base<gen.used()+5) {
        std::stringstream rawInsn;
        unsigned idx = insn->size();
        while(idx--) rawInsn << hex << setfill('0') << setw(2) << (unsigned int) insn->rawByte(idx);

        cerr << "\t" << hex << base << ":   " << rawInsn.str() << "   "
            << insn->format(base) << dec << endl;
        base += insn->size();
        insn = deco.decode();
    }
#endif
}

void LivenessAnalyzer::summarizeBlockLivenessInfo(Function* func, Block *block, bitArray &allRegsDefined) 
{
   if (blockLiveInfo.find(block) != blockLiveInfo.end()){
   	return;
   }
 
   livenessData &data = blockLiveInfo[block];
   data.use = data.def = data.in = abi->getBitArray();

   using namespace Dyninst::InstructionAPI;
   Address current = block->start();
   InstructionDecoder decoder(
                       reinterpret_cast<const unsigned char*>(getPtrToInstruction(block, block->start())),		     
                       block->size(),
                       block->obj()->cs()->getArch());
   Instruction::Ptr curInsn = decoder.decode();
   while(curInsn) {
     ReadWriteInfo curInsnRW;
     liveness_printf("%s[%d] After instruction %s at address 0x%lx:\n",
                     FILE__, __LINE__, curInsn->format().c_str(), current);
     if(!cachedLivenessInfo.getLivenessInfo(current, func, curInsnRW))
     {
       curInsnRW = calcRWSets(curInsn, block, current);
       cachedLivenessInfo.insertInstructionInfo(current, curInsnRW, func);
     }

     data.use |= (curInsnRW.read & ~data.def);
     // And if written, then was defined
     data.def |= curInsnRW.written;
      
     liveness_printf("%s[%d] After instruction at address 0x%lx:\n",
                     FILE__, __LINE__, current);
     liveness_cerr << "        " << regs1 << endl;
     liveness_cerr << "        " << regs2 << endl;
     liveness_cerr << "        " << regs3 << endl;
     liveness_cerr << "Read    " << curInsnRW.read << endl;
     liveness_cerr << "Written " << curInsnRW.written << endl;
     liveness_cerr << "Used    " << data.use << endl;
     liveness_cerr << "Defined " << data.def << endl;

      current += curInsn->size();
      curInsn = decoder.decode();
   }

   liveness_printf("%s[%d] Liveness summary for block:\n", FILE__, __LINE__);
   liveness_cerr << "     " << regs1 << endl;
   liveness_cerr << "     " << regs2 << endl;
   liveness_cerr << "     " << regs3 << endl;
   liveness_cerr << "Used " << data.in << endl;
   liveness_cerr << "Def  " << data.def << endl;
   liveness_cerr << "Use  " << data.use << endl;
   liveness_printf("%s[%d] --------------------\n---------------------\n", FILE__, __LINE__);

   allRegsDefined |= data.def;

   return;
}

void parse_block::getInsns(Insns &insns, Address base) {
   using namespace InstructionAPI;
   Offset off = firstInsnOffset();
   const unsigned char *ptr = (const unsigned char *)getPtrToInstruction(off);
   if (ptr == NULL) return;

   InstructionDecoder d(ptr, getSize(),obj()->cs()->getArch());

   while (off < endOffset()) {
      Instruction::Ptr insn = d.decode();

      insns[off + base] = insn;
      off += insn->size();
   }
}

void instrumentBasicBlock(BPatch_function * function, BPatch_basicBlock *block)
{
    Instruction::Ptr iptr;
    void *addr;
    unsigned char bytes[MAX_RAW_INSN_SIZE];
    size_t nbytes, i;

    // iterate backwards (PatchAPI restriction)
    PatchBlock::Insns insns;
    PatchAPI::convert(block)->getInsns(insns);
    PatchBlock::Insns::reverse_iterator j;
    for (j = insns.rbegin(); j != insns.rend(); j++) {

        // get instruction bytes
        addr = (void*)((*j).first);
        iptr = (*j).second;
        nbytes = iptr->size();
        assert(nbytes <= MAX_RAW_INSN_SIZE);
        for (i=0; i<nbytes; i++) {
            bytes[i] = iptr->rawByte(i);
        }
        bytes[nbytes] = '\0';

        // apply filter
		mainDecoder->decode((uint64_t)addr,iptr);

		if (mainDecoder->isCall()&&mainDecoder->isCall_indirect())
		{
			instrumentCallIns(addr, bytes, nbytes,
					PatchAPI::convert(function), PatchAPI::convert(block),mainDecoder->isCall_indirect());
		}
		else if (mainDecoder->isIndirectJmp())
		{
			instrumentIndirectJmpIns(addr, bytes, nbytes,
					PatchAPI::convert(function), PatchAPI::convert(block));
		}
		else if (mainDecoder->needDepie())
		{
			instrumentInstruction(addr, bytes, nbytes,
					PatchAPI::convert(function), PatchAPI::convert(block));
		}
    }
}

bool Injector::inject(std::string libname) {
   int_process *proc = proc_->llproc();
   pthrd_printf("Injecting %s into process %d\n", libname.c_str(), proc->getPid());
   if (!checkIfExists(libname)) {
      perr_printf("Library %s doesn't exist\n", libname.c_str());
      proc->setLastError(err_nofile, "File doesn't exist\n");
      return false;
   }

   Codegen codegen(proc_, libname);
   if (!codegen.generate()) {
      perr_printf("Could not generate code\n");
      proc->setLastError(err_internal, "Error in code generation");
      return false;
   }

   int_iRPC::ptr irpc = int_iRPC::ptr(new int_iRPC(codegen.buffer().start_ptr(),
                                                   codegen.buffer().size(),
                                                   false,
                                                   true,
                                                   codegen.buffer().startAddr()));
   // Don't try to execute a library name...
   irpc->setStartOffset(codegen.startOffset());

#if defined(DEBUG_DISASSEMBLE)
   cerr << "Setting starting offset to " << hex << codegen.startOffset() << endl;
   cerr << "And starting address is " << codegen.buffer().startAddr() << dec << endl;

   unsigned char *ptr = codegen.buffer().start_ptr();
   ptr += codegen.startOffset();
   Offset size = codegen.buffer().size() - codegen.startOffset();

   InstructionDecoder d(ptr, size, proc_->getArchitecture());

   Offset off = 0;
   while (off < size) {
     Instruction::Ptr insn = d.decode();
     cerr << hex << off + codegen.startOffset() + codegen.buffer().startAddr() << " : " << insn->format() << endl;
     off += insn->size();
   }

   off = 0;
   while (off < size) {
     cerr << hex <<  off + codegen.startOffset() + codegen.buffer().startAddr() << ": " << (int) ptr[off] << dec << endl;
     off++;
   }

#endif

   //Post, but doesn't start running yet.
   bool result = rpcMgr()->postRPCToProc(proc, irpc);
   if (!result) {
      pthrd_printf("Error posting RPC to process %d\n", proc->getPid());
      return false;
   }

   //Set the internal state so that this iRPC runs.
   int_thread *thr = irpc->thread();
   thr->getInternalState().desyncState(int_thread::running);
   irpc->setRestoreInternal(true);
   
   //Run the IRPC and wait for completion.
   proc->throwNopEvent();
   result = int_process::waitAndHandleEvents(false);
   if (!result) {
      perr_printf("Error waiting for and handling events\n");
      return false;
   }

   //TODO: Any mechanism for error checks?
   
   return true;
}                                                   

boost::tuple<Instruction::Ptr,
 Instruction::Ptr,
 bool> IA_x86Details::findMaxSwitchInsn(Block *start) 
{
    std::set<Block *> visited;
    std::vector<Block *> WL;
    Block *curBlk;
    int depth = 0;

    bool foundMaxSwitch = false;
    bool foundCondBranch = false;

    WL.push_back(start);
    Instruction::Ptr compareInsn, condBranchInsn;
    bool compareOnTakenBranch = false;
    for(unsigned j=0;j < WL.size(); j++)
    {
        curBlk = WL[j];
        visited.insert(curBlk);

        foundMaxSwitch = false;
        foundCondBranch = false;
        const unsigned char* buf =
                (const unsigned char*)(currentBlock->_isrc->getPtrToInstruction(curBlk->start()));
        if( buf == NULL ) {
            parsing_printf("%s[%d]: failed to get pointer to instruction by offset\n",
                           FILE__, __LINE__);
            return boost::make_tuple(Instruction::Ptr(), Instruction::Ptr(), false);
        }
        InstructionDecoder dec(buf, curBlk->size(), currentBlock->_isrc->getArch());
        Instruction::Ptr i;
        Address curAdr = curBlk->start();
        while((i = dec.decode()))
        {
            if(i->getCategory() == c_CompareInsn)
            // check for cmp
            {
                parsing_printf("\tFound jmp table cmp instruction %s at 0x%lx\n",
                               i->format().c_str(), curAdr);
                compareInsn = i;
                foundMaxSwitch = true;
            }
            if(i->getCategory() == c_BranchInsn &&
               i->allowsFallThrough())
            {
                parsing_printf("\tFound jmp table cond br instruction %s at 0x%lx\n",
                               i->format().c_str(), curAdr);
                condBranchInsn = i;
                foundCondBranch = true;

                Block::edgelist::const_iterator tit = curBlk->targets().begin();
                bool taken_hit = false;
                bool fallthrough_hit = false;
                for ( ; tit != curBlk->targets().end(); ++tit) {
                    ParseAPI::Edge *t = *tit;
                    if (t->type() == COND_TAKEN &&
                        (visited.find(t->trg()) != visited.end()))
                    {
                        taken_hit = true;
                    }
                    if ((t->type() == COND_NOT_TAKEN ||
                         t->type() == FALLTHROUGH) &&
                         (visited.find(t->trg()) != visited.end()))
                    {
                        fallthrough_hit = true;
                    }
                }
                parsing_printf("\tfindMaxSwitchInsn: taken_hit: %d, fallthrough_hit: %d\n", taken_hit, fallthrough_hit);
                compareOnTakenBranch = taken_hit && !fallthrough_hit;
                break;
            }
            curAdr += i->size();
        }

        if(foundMaxSwitch && foundCondBranch)
            break; // done

            // look further back
        Block::edgelist::const_iterator sit = curBlk->sources().begin();
        depth++;
            // We've seen depth 2 in libc et al
        if(depth > 2) return boost::make_tuple(Instruction::Ptr(), Instruction::Ptr(), false);
           
        for( ; sit != curBlk->sources().end(); ++sit)
        {
            ParseAPI::Edge * s = *sit;

            // ignore return edges
            if(s->type() == RET)
                continue;

            if(s->type() == CALL)
                return boost::make_tuple(Instruction::Ptr(), Instruction::Ptr(), false);

            Block * src = s->src();
            if( (visited.find( src ) == visited.end())) {
                WL.push_back(src);
            }
        }
    }
//.........这里部分代码省略.........

ReadWriteInfo LivenessAnalyzer::calcRWSets(Instruction::Ptr curInsn, Block* blk, Address a)
{

  liveness_cerr << "calcRWSets for " << curInsn->format() << " @ " << hex << a << dec << endl;
  ReadWriteInfo ret;
  ret.read = abi->getBitArray();
  ret.written = abi->getBitArray();
  ret.insnSize = curInsn->size();
  std::set<RegisterAST::Ptr> cur_read, cur_written;
  curInsn->getReadSet(cur_read);
  curInsn->getWriteSet(cur_written);
    liveness_printf("Read registers: \n");
  
  for (std::set<RegisterAST::Ptr>::const_iterator i = cur_read.begin(); 
       i != cur_read.end(); i++) 
  {
    MachRegister cur = (*i)->getID();
    if (cur.getArchitecture() == Arch_ppc64)
	cur = MachRegister((cur.val() & ~Arch_ppc64) | Arch_ppc32);
    liveness_printf("\t%s \n", cur.name().c_str());
    MachRegister base = cur.getBaseRegister();
    if (cur == x86::flags || cur == x86_64::flags){
      if (width == 4){
        ret.read[getIndex(x86::of)] = true;
        ret.read[getIndex(x86::cf)] = true;
        ret.read[getIndex(x86::pf)] = true;
        ret.read[getIndex(x86::af)] = true;
        ret.read[getIndex(x86::zf)] = true;
        ret.read[getIndex(x86::sf)] = true;
        ret.read[getIndex(x86::df)] = true;
        ret.read[getIndex(x86::tf)] = true;
        ret.read[getIndex(x86::nt_)] = true;
      }
      else {
        ret.read[getIndex(x86_64::of)] = true;
        ret.read[getIndex(x86_64::cf)] = true;
        ret.read[getIndex(x86_64::pf)] = true;
        ret.read[getIndex(x86_64::af)] = true;
        ret.read[getIndex(x86_64::zf)] = true;
        ret.read[getIndex(x86_64::sf)] = true;
        ret.read[getIndex(x86_64::df)] = true;
        ret.read[getIndex(x86_64::tf)] = true;
        ret.read[getIndex(x86_64::nt_)] = true;
      }
    }
    else{
      base = changeIfMMX(base);
      ret.read[getIndex(base)] = true;
    }
  }
  liveness_printf("Write Registers: \n"); 
  for (std::set<RegisterAST::Ptr>::const_iterator i = cur_written.begin(); 
       i != cur_written.end(); i++) {  
    MachRegister cur = (*i)->getID();
    if (cur.getArchitecture() == Arch_ppc64)
	cur = MachRegister((cur.val() & ~Arch_ppc64) | Arch_ppc32);
    liveness_printf("\t%s \n", cur.name().c_str());
    MachRegister base = cur.getBaseRegister();
    if (cur == x86::flags || cur == x86_64::flags){
      if (width == 4){
        ret.written[getIndex(x86::of)] = true;
        ret.written[getIndex(x86::cf)] = true;
        ret.written[getIndex(x86::pf)] = true;
        ret.written[getIndex(x86::af)] = true;
        ret.written[getIndex(x86::zf)] = true;
        ret.written[getIndex(x86::sf)] = true;
        ret.written[getIndex(x86::df)] = true;
        ret.written[getIndex(x86::tf)] = true;
        ret.written[getIndex(x86::nt_)] = true;
      }
      else {
        ret.written[getIndex(x86_64::of)] = true;
        ret.written[getIndex(x86_64::cf)] = true;
        ret.written[getIndex(x86_64::pf)] = true;
        ret.written[getIndex(x86_64::af)] = true;
        ret.written[getIndex(x86_64::zf)] = true;
        ret.written[getIndex(x86_64::sf)] = true;
        ret.written[getIndex(x86_64::df)] = true;
        ret.written[getIndex(x86_64::tf)] = true;
        ret.written[getIndex(x86_64::nt_)] = true;
      }
    }
    else{
      base = changeIfMMX(base);
      ret.written[getIndex(base)] = true;
      if ((cur != base && cur.size() < 4) || isMMX(base)) ret.read[getIndex(base)] = true;
    }
  }
  InsnCategory category = curInsn->getCategory();
  switch(category)
  {
  case c_CallInsn:
      // Call instructions not at the end of a block are thunks, which are not ABI-compliant.
      // So make conservative assumptions about what they may read (ABI) but don't assume they write anything.
      ret.read |= (abi->getCallReadRegisters());
      if(blk->lastInsnAddr() == a)
      {
          ret.written |= (abi->getCallWrittenRegisters());
      }
    break;
//.........这里部分代码省略.........

/* returns true if the call leads to:
 * -an invalid instruction (or immediately branches/calls to an invalid insn)
 * -a block not ending in a return instruction that pops the return address 
 *  off of the stack
 */
bool IA_IAPI::isFakeCall() const
{
    assert(_obj->defensiveMode());

    if (isDynamicCall()) {
        return false;
    }

    // get func entry
    bool tampers = false;
    bool valid; Address entry;
    boost::tie(valid, entry) = getCFT();

    if (!valid) return false;

    if (! _cr->contains(entry) ) {
       return false;
    }

    if ( ! _isrc->isCode(entry) ) {
        mal_printf("WARNING: found function call at %lx "
                   "to invalid address %lx %s[%d]\n", current, 
                   entry, FILE__,__LINE__);
        return false;
    }

    // get instruction at func entry
    const unsigned char* bufPtr =
     (const unsigned char *)(_cr->getPtrToInstruction(entry));
    Offset entryOff = entry - _cr->offset();
    InstructionDecoder newdec( bufPtr,
                              _cr->length() - entryOff,
                              _cr->getArch() );
    IA_IAPI *ah = new IA_IAPI(newdec, entry, _obj, _cr, _isrc, _curBlk);
    Instruction::Ptr insn = ah->curInsn();

    // follow ctrl transfers until you get a block containing non-ctrl 
    // transfer instructions, or hit a return instruction
    while (insn->getCategory() == c_CallInsn ||
           insn->getCategory() == c_BranchInsn) 
    {
       boost::tie(valid, entry) = ah->getCFT();
       if ( !valid || ! _cr->contains(entry) || ! _isrc->isCode(entry) ) {
          mal_printf("WARNING: found call to function at %lx that "
                     "leaves to %lx, out of the code region %s[%d]\n", 
                     current, entry, FILE__,__LINE__);
          return false;
       }
        bufPtr = (const unsigned char *)(_cr->getPtrToInstruction(entry));
        entryOff = entry - _cr->offset();
        delete(ah);
        newdec = InstructionDecoder(bufPtr, 
                                    _cr->length() - entryOff, 
                                    _cr->getArch());
        ah = new IA_IAPI(newdec, entry, _obj, _cr, _isrc, _curBlk);
        insn = ah->curInsn();
    }

    // calculate instruction stack deltas for the block, leaving the iterator
    // at the last ins'n if it's a control transfer, or after calculating the 
    // last instruction's delta if we run off the end of initialized memory
    int stackDelta = 0;
    int addrWidth = _isrc->getAddressWidth();
    static Expression::Ptr theStackPtr
        (new RegisterAST(MachRegister::getStackPointer(_isrc->getArch())));
    Address curAddr = entry;

    while(true) {

        // exit condition 1
        if (insn->getCategory() == c_CallInsn ||
            insn->getCategory() == c_ReturnInsn ||
            insn->getCategory() == c_BranchInsn) 
        {
            break;
        }

        // calculate instruction delta
        if(insn->isWritten(theStackPtr)) {
            entryID what = insn->getOperation().getID();
            int sign = 1;
            switch(what) 
            {
            case e_push:
                sign = -1;
                //FALLTHROUGH
            case e_pop: {
                int size = insn->getOperand(0).getValue()->size();
                stackDelta += sign * size;
                break;
            }
            case e_pusha:
            case e_pushad:
                sign = -1;
                //FALLTHROUGH
//.........这里部分代码省略.........

func_instance *mapped_object::findGlobalDestructorFunc(const std::string &dtorHandler) {
    using namespace Dyninst::InstructionAPI;

    const pdvector<func_instance *> *funcs = findFuncVectorByMangled(dtorHandler);
    if( funcs != NULL ) {
        return funcs->at(0);
    }

    /*
     * If the symbol isn't found, try looking for it in a call in the
     * .fini section. It is the last call in .fini.
     *
     * The pattern is:
     *
     * _fini:
     *
     * ... some code ...
     *
     * call dtor_handler
     *
     * ... prologue ...
     */
    Symtab *linkedFile = parse_img()->getObject();
    Region *finiRegion = NULL;
    if( !linkedFile->findRegion(finiRegion, ".fini") ) {
        vector<Dyninst::SymtabAPI::Function *> symFuncs;
        if( linkedFile->findFunctionsByName(symFuncs, "_fini") ) {
            finiRegion = symFuncs[0]->getRegion();
        }else{
            logLine("failed to locate .fini Region or _fini function\n");
            return NULL;
        }
    }

    if( finiRegion == NULL ) {
        logLine("failed to locate .fini Region or _fini function\n");
        return NULL;
    }

    // Search for last call in the function
    Address dtorAddress = 0;
    unsigned bytesSeen = 0;
    const unsigned char *p = reinterpret_cast<const unsigned char *>(finiRegion->getPtrToRawData());

    InstructionDecoder decoder(p, finiRegion->getDiskSize(),
        parse_img()->codeObject()->cs()->getArch());

    Instruction::Ptr lastCall;
    Instruction::Ptr curInsn = decoder.decode();

    while(curInsn && curInsn->isValid() &&
          bytesSeen < finiRegion->getDiskSize()) 
    {
        InsnCategory category = curInsn->getCategory();
        if( category == c_CallInsn ) {
            lastCall = curInsn;
            break;
        }

        bytesSeen += curInsn->size();
        curInsn = decoder.decode();
    }

    if( !lastCall.get() || !lastCall->isValid() ) {
        logLine("heuristic for finding global destructor function failed\n");
        return NULL;
    }

    Address callAddress = finiRegion->getMemOffset() + bytesSeen;

    RegisterAST thePC = RegisterAST(
        Dyninst::MachRegister::getPC(parse_img()->codeObject()->cs()->getArch()));

    Expression::Ptr callTarget = lastCall->getControlFlowTarget();
    if( !callTarget.get() ) {
        logLine("failed to find global destructor function\n");
        return NULL;
    }
    callTarget->bind(&thePC, Result(s64, callAddress));

    Result actualTarget = callTarget->eval();
    if( actualTarget.defined ) {
        dtorAddress = actualTarget.convert<Address>();
    }else{
        logLine("failed to find global destructor function\n");
        return NULL;
    }

    if( !dtorAddress || !parse_img()->codeObject()->cs()->isValidAddress(dtorAddress) ) {
        logLine("invalid address for global destructor function\n");
        return NULL;
    }

    // A targ stub should have been created at the address
    func_instance *ret = NULL;
    if( (ret = findFuncByEntry(dtorAddress)) == NULL ) {
        logLine("unable to find global destructor function\n");
        return NULL;
    }
    inst_printf("%s[%d]: set global destructor address to 0x%lx\n", FILE__, __LINE__,
//.........这里部分代码省略.........

void TextRewriter::organizeNewText() {
   /**
    *
    */

   unsigned int textSize = 0;

   textSize = textRegion->getRegionSize();

   oldText = (unsigned char*) textRegion->getPtrToRawData();
   newText = (unsigned char*) calloc (1, sizeof(unsigned char) * textSize);
   memcpy(newText, oldText, textSize);

   //InstructionDecoder decoder(oldText, textSize, Arch_x86_64);
   InstructionDecoder decoder(oldText, textSize, Arch_x86);
   Instruction::Ptr i = decoder.decode();

   long unsigned int currentTextOffset = 0;
   while (i != NULL) {

      //vector<Operand> operands;
      //i->getOperands(operands);
      //if (operands.size() > 0) {
      //  Expression::Ptr exp = operands[0].getValue();
      //  Result res = exp->eval();
      //  Immediate::makeImmediate(Result(u64, 2^32));
      //  fprintf(stderr, "results: %s\n", res.format().c_str());
      //}

      unsigned char* dotTextRaw = (unsigned char*) i->ptr();

      //fprintf(stderr, "%i bytes > %s -- ", i->size(), i->format().c_str());
      //for (int x = 0; x < i->size(); x++) {
      //   fprintf(stderr, " %x ", dotTextRaw[x]);
      //}
      //fprintf(stderr, "\n");

      if (i->readsMemory()) {

         if (/*dotTextRaw[0] == 0xa1 && */i->size() == 5 || i->size() == 6) {
            unsigned int* dataOperand = i->size() == 5 ? (unsigned int*)(dotTextRaw + 1)
               : (unsigned int*)(dotTextRaw + 2);

            // Interpret as int to reverse bytes in memory automatically
            fprintf(stderr, "Data operand: %p\n", (void*) ((unsigned int)*dataOperand));


            unsigned int data = *dataOperand;

            unsigned char* tmp = (unsigned char*) dataOperand;

            if (dataRegion->isOffsetInRegion((*relocs)[data])
                  || bssRegion->isOffsetInRegion((*relocs)[data])) {
               // Hacky, depends on teh 32-bit instructions
               int tmp = i->size() == 5 ? 1 : 2;
               *((unsigned int*)(newText + currentTextOffset + tmp)) = (*relocs)[data];
            }
         }
      }

      //if (dotTextRaw[0] == 0xa1 && i->size() == 9) {
      //   fprintf(stdout, "%i bytes > %s\n", i->size(), i->format().c_str());
      //   unsigned int* dataOperand = (unsigned int*)(dotTextRaw + 1);
      //   if (dataOperand[0] > 134518284) {
      //      ((unsigned int*)(((unsigned char*) dotTextRawMuta) + currentTextOffset + 1))[0] = 134518520;
      //   }
      //}

      currentTextOffset += i->size();
      i = decoder.decode();
   }

   // Assign the data region to point at the new buffer
   if (!textRegion->setPtrToRawData((void*) newText, textRegion->getRegionSize())) {
      fprintf(stderr, "Failed to set pointer to raw text!\n");
      exit(EXIT_FAILURE);
   }
}