static inline void
insert(TrieNode<CharT, BucketT>* root, unsigned char** strings, size_t n)
{
for (size_t i=0; i < n; ++i) {
unsigned char* str = strings[i];
size_t depth = 0;
CharT c = get_char<CharT>(str, 0);
TrieNode<CharT, BucketT>* node = root;
while (node->is_trie(c)) {
assert(not is_end(c));
node = node->get_node(c);
depth += sizeof(CharT);
c = get_char<CharT>(str, depth);
}
BucketT* bucket = node->get_bucket(c);
assert(bucket);
bucket->push_back(str);
if (is_end(c)) continue;
if (bucket->size() > Threshold) {
node->_buckets[c] = BurstImpl()(*bucket,
depth+sizeof(CharT));
make_trie(node->_buckets[c]);
delete bucket;
}
}
}
static inline size_t
handle_bucket(TSTNode<CharT>* node,
unsigned char** strings,
size_t pos,
size_t depth)
{
static_assert(BucketNum < 3, "BucketNum < 3");
if (node->is_tst[BucketNum]) {
pos = burst_traverse<BucketT>(
static_cast<TSTNode<CharT>*>(node->buckets[BucketNum]),
strings,
pos,
depth + (BucketNum==1)*sizeof(CharT));
} else if (node->buckets[BucketNum]) {
BucketT* buck = static_cast<BucketT*>(node->buckets[BucketNum]);
size_t bsize = buck->size();
std::copy(buck->begin(), buck->end(), strings+pos);
delete buck;
if (not is_middle_bucket(BucketNum)) {
mkqsort(strings+pos, bsize, depth);
} else if (not is_end(node->pivot)) {
mkqsort(strings+pos,
bsize,
depth+sizeof(CharT));
}
pos += bsize;
}
return pos;
}
bool additem(ElemType elem, CountType count)
{
count=1;
if(bs_->next_==NULL)
{
bs_->next_=new BucketT(count, bs_, NULL);
end_=bs_->next_;
}
BucketT* bp=bs_->next_;
ItemT* i=new ItemT(elem, bp, NULL, NULL);
if(bp->c_ == count)
{
bp->insert(i);
}
else
{
BucketT* nbp = new BucketT(count, bs_, bs_->next_);
bs_->next_ = nbp;
nbp->next_->prev_=nbp;
nbp->insert(i);
}
size_++;
gps_[elem]=i;
th_=bs_->next_->c_;
return true;
}
bool update(ElemType elem, CountType count)
{
ItemT* i = gps_[elem];
BucketT* bp = i->b_;
count = bp->c_+1;
if(bp->size_==1 && (!(bp->next_) || bp->next_->c_ > count))
{
bp->c_++;
th_ = bs_->next_->c_;
return true;
}
bp->erase(i);
if(!(bp->next_))
{
bp->next_=new BucketT(count, bp, NULL);
end_=bp->next_;
}
else if(bp->next_->c_ > count)
{
BucketT* tp=new BucketT(count, bp, bp->next_);
bp->next_=tp;
tp->next_->prev_=tp;
}
bp->next_->insert(i);
if(bp->size_==0)
{
bp->prev_->next_=bp->next_;
bp->next_->prev_=bp->prev_;
bp->next_=bp->prev_=NULL;
delete bp;
}
return true;
}
static inline void
burst_insert(TSTNode<CharT>* root, unsigned char** strings, size_t N)
{
for (size_t i=0; i < N; ++i) {
unsigned char* str = strings[i];
size_t depth = 0;
CharT c = get_char<CharT>(str, depth);
TSTNode<CharT>* node = root;
unsigned bucket = get_bucket(c, node->pivot);
while (node->is_tst[bucket]) {
if (is_middle_bucket(bucket)) {
depth += sizeof(CharT);
c = get_char<CharT>(str, depth);
}
node = static_cast<TSTNode<CharT>*>(
node->buckets[bucket]);
bucket = get_bucket(c, node->pivot);
}
BucketT* buck = static_cast<BucketT*>(node->buckets[bucket]);
if (not buck)
node->buckets[bucket] = buck = new BucketT;
buck->push_back(str);
if (is_middle_bucket(bucket) && is_end(node->pivot)) {
continue;
}
if (buck->size() > sizeof(CharT)*Threshold
and buck->size() == buck->capacity()) {
if (is_middle_bucket(bucket)) {
depth += sizeof(CharT);
}
CharT* oracle = static_cast<CharT*>(
malloc(buck->size()*sizeof(CharT)));
for (unsigned j=0; j < buck->size(); ++j) {
oracle[j] = get_char<CharT>((*buck)[j], depth);
}
TSTNode<CharT>* new_node
= BurstImpl()(*buck, oracle, depth);
free(oracle);
delete buck;
node->buckets[bucket] = new_node;
node->is_tst[bucket] = true;
}
}
}
static inline void
copy(const BucketT& bucket, OutputIterator dst)
{
std::copy(bucket.begin(), bucket.end(), dst);
}