int int_vectors(int vector1[], int vector2[], int size)
{
for (int i = 0; i < size; i++){
if (vector1[i] != vector2[i]){
print_int_vector(vector1, size);
print_int_vector(vector2, size);
printf("%d != %d\n", vector1[i], vector2[i]);
return(0);
}
}
return(1);
}
std::string JSON_printer::print_int_vec_vector(std::vector<std::vector<int>> vec) {
std::string out_string = "[";
for (int i = 0; i < vec.size(); i++) {
out_string = out_string + print_int_vector(vec[i]);
if (i != vec.size() - 1) {
out_string = out_string + ",";
}
}
out_string.append("]");
return out_string;
}
EXPORT void rect_grid_center(
const RECT_GRID *rect_grid,
const int *icoords,
double *fcoords)
{
int i, dim = rect_grid->dim;
for (i = 0; i < dim; ++i)
{
if ((icoords[i] < 0) || (icoords[i] >= rect_grid->gmax[i]))
{
screen("ERROR in rect_grid_center(), "
"center for icoords not on rect_grid:\n");
print_int_vector("icoords = ",icoords,dim,"\n");
print_RECT_GRID_structure(rect_grid);
clean_up(ERROR);
}
fcoords[i] = cell_center(icoords[i],i,rect_grid);
}
} /* end rect_grid_center */
std::string JSON_printer::print_labeled_counts(std::string graph_name, int num_nodes, int num_edges, std::unordered_map<std::string, std::vector<int>> map) {
std::string out_str = "{ \"Graphname\" : \"" + graph_name + "\", \"Number of vertices\" : " + std::to_string(num_nodes) + ", ";
out_str = out_str + "\"Number of edges\" : " + std::to_string(num_edges) + ", ";
out_str += "\"Labeled Counts\" : { ";
for (auto k : map) {
out_str += "\"" + k.first + "\" : ";
out_str += print_int_vector(k.second);
out_str += ", ";
}
out_str.erase(out_str.size() - 3, 3);
out_str += "]}}";
return out_str;
}
std::string JSON_printer::print_vectors_with_info(std::string graph_name, int num_nodes, int num_edges, std::vector<std::vector<float>> rel_counts, std::vector<std::vector<int> > abs_counts) {
std::vector<int> two_graphletsABS = abs_counts[0];
std::vector<int> three_graphletsABS = abs_counts[1];
std::vector<int> four_graphletsABS = abs_counts[2];
std::vector<int> five_graphletsABS = abs_counts[3];
std::vector<float> two_graphletsNORM = rel_counts[0];
std::vector<float> three_graphletsNORM = rel_counts[1];
std::vector<float> four_graphletsNORM = rel_counts[2];
std::vector<float> five_graphletsNORM = rel_counts[3];
std::string quot_marks = "\"";
std::string out_str = "{ \"Graphname\" : " + quot_marks + graph_name + quot_marks + ", \"Number of vertices\" : " + std::to_string(num_nodes) + ", ";
out_str = out_str + "\"Number of edges\" : " + std::to_string(num_edges) + ", ";
std::string abs_str = "\"Absolute Counts\" : { ";
std::string norm_str = "\"Normalized Counts\" : { ";
if (two_graphletsABS.empty()) {
abs_str += "\"2-graphlets\" : null, ";
} else {
abs_str += "\"2-graphlets\" : " + print_int_vector(two_graphletsABS) + ", ";
}
if (three_graphletsABS.empty()) {
abs_str += "\"3-graphlets\" : null, ";
} else {
abs_str += "\"3-graphlets\" : " + print_int_vector(three_graphletsABS) + ", ";
}
if (four_graphletsABS.empty()) {
abs_str += "\"4-graphlets\" : null, ";
} else {
abs_str += "\"4-graphlets\" : " + print_int_vector(four_graphletsABS) + ", ";
}
if (five_graphletsABS.empty()) {
abs_str += "\"5-graphlets\" : null}";
} else {
abs_str += "\"5-graphlets\" : " + print_int_vector(five_graphletsABS) + "}, ";
}
out_str += abs_str;
if (two_graphletsNORM.empty()) {
norm_str += "\"2-graphlets\" : null, ";
} else {
norm_str += "\"2-graphlets\" : " + print_float_vector(two_graphletsNORM) + ", ";
}
if (three_graphletsNORM.empty()) {
norm_str += "\"3-graphlets\" : null, ";
} else {
norm_str += "\"3-graphlets\" : " + print_float_vector(three_graphletsNORM) + ", ";
}
if (four_graphletsNORM.empty()) {
norm_str += "\"4-graphlets\" : null, ";
} else {
norm_str += "\"4-graphlets\" : " + print_float_vector(four_graphletsNORM) + ", ";
}
if (two_graphletsNORM.empty()) {
norm_str += "\"5-graphlets\" : null}";
} else {
norm_str += "\"5-graphlets\" : " + print_float_vector(five_graphletsNORM) + "}";
}
out_str += norm_str + "}";
return out_str;
}
