void getG() {
clearG();
gKids.resize(goodmanIndex);
tKids.resize(goodmanIndex);
for(Umap::iterator iter = umap.begin();iter != umap.end();++iter) {
unsigned int to = iter->first;
vector<unsigned int> kv;
kv.push_back(to);
set<unsigned int> froms = iter->second;
for(set<unsigned int>::iterator jter = froms.begin();jter != froms.end();++jter) {
unsigned int from = *jter;
gKids[from] = kv;
}
}
for(Bmap::iterator iter = bmap.begin();iter != bmap.end();++iter) {
pair<unsigned int,unsigned int> to = iter->first;
vector<unsigned int> kv;
kv.push_back(to.first);
kv.push_back(to.second);
set<unsigned int> froms = iter->second;
for(set<unsigned int>::iterator jter = froms.begin();jter != froms.end();++jter) {
unsigned int from = *jter;
gKids[from] = kv;
}
}
for(S2Setmap::iterator iter = preterms.begin();iter != preterms.end();++iter) {
string t = iter->first;
set<unsigned int> froms = iter->second;
for(set<unsigned int>::iterator jter = froms.begin();jter != froms.end();++jter) {
unsigned int from = *jter;
tKids[from] = t;
}
}
}
void dump() {
printf("SYMBOLS\n");
for(unsigned int i=0;i<goodmanIndex;++i) {
if(i < nSym) {
printf("%u\t: %s\n",i,syms[i].c_str());
} else if(i < nSym*2) {
printf("%u\t: %s*\n",i,syms[i-nSym].c_str());
} else if(i == nSym*2) {
printf("%u\t: %s\n",i,syms[nSym*2].c_str());
} else {
unsigned int bSym = baseSym[i];
printf("%u\t: %s\n",i,syms[bSym].c_str());
}
}
printf("PRETERMS\n");
for(S2Setmap::iterator iter = preterms.begin();iter != preterms.end();++iter) {
set<unsigned int> s = iter->second;
for(set<unsigned int>::iterator jter = s.begin();jter != s.end();++jter) {
unsigned int i = *jter;
string sym = syms[baseSym[i]];
printf("%u -> %s\t\t\t%s -> %s\n",i,iter->first.c_str(),sym.c_str(),iter->first.c_str());
}
}
printf("UNARIES\n");
for(Umap::iterator iter = umap.begin();iter != umap.end();++iter) {
set<unsigned int> s = iter->second;
for(set<unsigned int>::iterator jter = s.begin();jter != s.end();++jter) {
unsigned int i = *jter;
string sym = syms[baseSym[i]];
unsigned int j = iter->first;
string jsym = syms[baseSym[j]];
printf("%u -> %u\t\t\t%s -> %s\n",i,j,sym.c_str(),jsym.c_str());
}
}
printf("BINARIES\n");
for(Bmap::iterator iter = bmap.begin();iter != bmap.end();++iter) {
set<unsigned int> s = iter->second;
for(set<unsigned int>::iterator jter = s.begin();jter != s.end();++jter) {
unsigned int i = *jter;
string sym = syms[baseSym[i]];
unsigned int j = iter->first.first;
string jsym = syms[baseSym[j]];
unsigned int k = iter->first.second;
string ksym = syms[baseSym[k]];
printf("%u -> %u %u\t\t\t%s -> %s %s\n",i,j,k,sym.c_str(),jsym.c_str(),ksym.c_str());
}
}
}
vector<string> anagrams(vector<string>& strs) {
typedef unordered_map<string, int> Umap;
vector<string> res;
Umap dict;
for(int i = 0; i < strs.size(); i++){
string s = strs[i];
sort(s.begin(), s.end());
Umap::iterator it = dict.find(s);
if(it == dict.end()){
dict.insert(Umap::value_type(s, i));
} else {
if(it->second != -1){
res.push_back(strs[it->second]);
it->second = -1;
}
res.push_back(strs[i]);
}
}
return res;
}
