void load_(vector<uint32_t>& indexes)
{
uint32_t idx = indexes.front();
indexes.erase(indexes.begin());
NodeType* n = nodes[idx].pNode_ ;
nodes[idx] = _cache_node_(n);
for (uint32_t i=0; i<n->getSize(); i++)
{
if (n->getDiskAddr(i)==(uint64_t)-1)
continue;
if (n->getDiskAddr(i)%2==0)
continue;
NodeType* t = new NodeType(f_);
t->load(n->getDiskAddr(i));
nodes[count_] = _cache_node_(t);
indexes.push_back(count_);
n->setMemAddr(i, count_);
count_++;
if (count_>=CACHE_SIZE)
{
indexes.clear();
return;
}
}
}
/*!
*Load bucket of specific disk address into memory.
**/
nodePtr getNodeByMemAddr(uint32_t& memAddr, uint64_t diskAddr)
{
if (diskAddr%2==1)
return nodePtr();
if (memAddr>=count_ && memAddr!=(uint32_t)-1&&count_!=0)
return nodePtr();
if (memAddr!=(uint32_t)-1)
{
NodeType* t = nodes[memAddr].pNode_;
if (t->getDiskAddr()==diskAddr)
{
return nodePtr(nodes[memAddr], memAddr);
}
}
uint32_t i = findInCache(diskAddr);
if (i != (uint32_t)-1)
{
memAddr = i;
return nodePtr(nodes[i], memAddr);
}
if (count_<CACHE_SIZE)
{
NodeType* t = new NodeType(f_);
t->load(diskAddr);
nodes[count_] = _cache_node_(t);
memAddr = count_;
count_++;
return nodePtr(nodes[memAddr], memAddr);
}
//cout<< "getNodeByMemAddr()\n";
memAddr = findSwitchOut();
//cout<<"\nswitch out-: "<<memAddr<<endl;
kickOutNodes(memAddr);
NodeType* t = new NodeType(f_);
t->load(diskAddr);
nodes[memAddr] = _cache_node_(t);
return nodePtr(nodes[memAddr], memAddr);
}
