void TestMonteCarlo(){
int size = 5;
int opensites = 0;
Percolation* pobj = new Percolation(size);
pobj->open(7/size,7%size);
pobj->open(6/size,6%size);
pobj->open(5/size,5%size);
if( pobj->percolates()){
cout<< "percolation started after: " << opensites << "out of " << size * size <<endl;
}
}
void PercolationStat<GIRD_NUM>::doPercolate(){
cout << "percolation starts!" << endl;
for (int i = 0; i < _time; i++){
Percolation<GIRD_NUM> p;
int open_num = 0;
while (!p.percolates() && open_num <= GIRD_NUM * GIRD_NUM){
int row = rand() % GIRD_NUM;
int column = rand() % GIRD_NUM;
if (!p.isOpen(row, column)){
p.open(row, column);
open_num ++;
}
}
double fraction = double(open_num) / double(GIRD_NUM * GIRD_NUM);
_fraction_list.push_back(fraction);
cout << "fraction=" << fraction << endl;
}
}
void RunMonteCarlo(){
int size = 10000;
int opensites = 0;
Percolation* pobj = new Percolation(size);
srand((unsigned)time(0)); /* system call should not be inside the loop */
while(1){
int sindex = GenerateRandomNumberBetweenRange(0,size*size);
if(pobj->isOpen(sindex/size,sindex%size)){
continue;
}
//cout<< "Adding site: " << sindex << " As open" <<endl;
pobj->open(sindex/size,sindex%size);
opensites++;
if(pobj->percolates()){
cout<< "percolation started after: " << opensites << "out of " << size * size <<endl;
break;
}
}
}