void length_spec::display(int ind) const
{
TITLE(length_spec);
LEAF(mode);
LEAF(lengths);
LEAF(lengthp);
}
void timed_initial_literal::display(int ind) const
{
TITLE(timed_initial_literal);
LEAF(ts);
LEAF(time_stamp);
FIELD(effs);
};
void plan_step::display(int ind) const
{
LEAF(start_time);
FIELD(op_sym);
FIELD(params);
LEAF(duration);
}
void constraint_goal::display(int ind) const
{
TITLE(constraint_goal);
LEAF(cons);
FIELD(requirement);
FIELD(trigger);
LEAF(deadline);
LEAF(from);
};
void domain::display(int ind) const
{
TITLE(domain);
LEAF(name);
LEAF(req);
indent(ind);
cout << pddl_req_flags_string(req);
// FIELD(types);
// FIELD(constants);
// FIELD(pred_vars);
FIELD(predicates);
FIELD(ops);
FIELD(drvs);
}
void assignment::display(int ind) const
{
TITLE(assignment);
LEAF(op);
FIELD(f_term);
FIELD(expr);
}
void comparison::display(int ind) const
{
TITLE(comparison);
LEAF(op);
FIELD(arg1);
FIELD(arg2);
}
void tExtractInterface::cleanRegion(vector<vector<tNode *> > &recs) {
if (!(recs.size())) return;
if (!(recs[0].size())) return;
bool field[recs[0].size()];
for (size_t i=0;i<recs[0].size();i++) field[i]=false;
for (size_t i=0;i<recs.size();i++) {
for (size_t j=0;j<recs[i].size();j++) {
if (recs[i][j] && (
LEAF(recs[i][j]) //||
//IMG(recs[i][j]) ||
//LINK(recs[i][j])
)) field[j]=true;
}
}
size_t k=0;
for (size_t j=0;j<recs[0].size();j++,k++) {
if (!field[j]) {
for (size_t i=0;i<recs.size();i++) {
recs[i].erase(recs[i].begin()+k);
}
k--;
}
}
}
void pddl_typed_symbol::display(int ind) const
{
TITLE(symbol);
LEAF(name);
cout << "[" << this << "]\n";
FIELD(type);
FIELD(either_types);
}
void problem::display(int ind) const
{
TITLE(problem);
LEAF(req);
indent(ind+1);
cout << pddl_req_flags_string(req);
FIELD(types);
FIELD(objects);
FIELD(initial_state);
FIELD(the_goal);
FIELD(constraints);
FIELD(metric);
FIELD(length);
};
void printBinaryTree(FILE *fp, NodeT *np)
{
char buf[128];
if(LEAF(np)) {
sprintf(buf, "%s:%f", np->name, np->rho);
wrapPrint(fp, buf);
}
else {
wrapPrint(fp, "(");
printBinaryTree(fp, np->child_l);
wrapPrint(fp, ",");
printBinaryTree(fp, np->child_r);
sprintf(buf, "):%f", np->rho);
wrapPrint(fp, buf);
}
}
void metric_spec::display(int ind) const
{
TITLE(metric_spec);
LEAF(opt);
FIELD(expr);
}
void violation_term::display(int ind) const
{
TITLE(violation_term);
LEAF(name);
}
void float_expression::display(int ind) const
{
TITLE(int_expression);
LEAF(val);
}
void preference::display(int ind) const
{
TITLE(preference);
LEAF(name);
FIELD(gl);
};
void symbol::display(int ind) const
{
TITLE(symbol);
LEAF(name);
}
void timed_goal::display(int ind) const
{
TITLE(timed_goal);
LEAF(ts);
FIELD(gl);
}
void timed_effect::display(int ind) const
{
TITLE(timed_effect);
LEAF(ts);
FIELD(effs);
}
int neighbor_joining(matrix *distance, tree_s *out_tree) {
size_t matrix_size = distance->size;
if (matrix_size < 3 || !out_tree) return -2;
int check;
check = tree_init(out_tree, matrix_size);
if (check) return check;
tree_node *node_pool = out_tree->pool;
tree_node *empty_node_ptr = &node_pool[matrix_size];
tree_node **unjoined_nodes = malloc(matrix_size * sizeof(tree_node *));
CHECK_MALLOC(unjoined_nodes);
size_t n = matrix_size;
size_t i, j;
for (i = 0; i < n; i++) {
node_pool[i] = LEAF(i);
unjoined_nodes[i] = &node_pool[i];
}
double r[matrix_size];
matrix local_copy;
check = matrix_copy(&local_copy, distance);
assert(check == 0);
assert(local_copy.size == distance->size);
assert(memcmp(local_copy.data, distance->data,
matrix_size * matrix_size * sizeof(double)) == 0);
#define M(I, J) (MATRIX_CELL(local_copy, I, J))
while (n > 3) {
for (i = 0; i < n; i++) {
double rr = 0.0;
for (j = 0; j < n; j++) {
if (i == j) assert(M(i, j) == 0.0);
assert(M(i, j) == M(j, i));
rr += M(i, j);
}
r[i] = rr / (double)(n - 2);
}
size_t min_i = 0, min_j = 1;
double min_value = M(0, 1) - r[0] - r[1];
for (i = 0; i < n; i++) {
for (j = 0; j < n; j++) {
if (i == j) continue;
double value = M(i, j) - r[i] - r[j];
if (value < min_value) {
min_i = i;
min_j = j;
min_value = value;
}
}
}
// force i < j
if (min_j < min_i) {
size_t temp = min_i;
min_i = min_j;
min_j = temp;
}
tree_node branch = {
.left_branch = unjoined_nodes[min_i],
.right_branch = unjoined_nodes[min_j],
.left_dist = (M(min_i, min_j) + r[min_i] - r[min_j]) / 2.0,
.right_dist = (M(min_i, min_j) - r[min_i] + r[min_j]) / 2.0,
.index = -1};
*empty_node_ptr++ = branch;
unjoined_nodes[min_i] = empty_node_ptr - 1;
unjoined_nodes[min_j] = unjoined_nodes[n - 1];
double row_k[matrix_size];
double M_ij = M(min_i, min_j);
for (size_t m = 0; m < n; m++) {
if (m == min_i || m == min_j) continue;
row_k[m] = (M(min_i, m) + M(min_j, m) - M_ij) / 2.0;
// if( row_k[m] < 0) row_k[m] = 0;
}
// row_k[min_i] and row_k[min_j] are undefined!
row_k[min_i] = 0.0;
row_k[min_j] = row_k[n - 1];
memmove(&M(min_i, 0), row_k, matrix_size * sizeof(double));
memmove(&M(min_j, 0), &M((n - 1), 0), matrix_size * sizeof(double));
M(min_i, min_i) = M(min_j, min_j) = 0.0;
for (i = 0; i < n; i++) {
M(i, min_i) = M(min_i, i);
}
for (i = 0; i < n; i++) {
M(i, min_j) = M(min_j, i);
}
n--;
}
// join three remaining nodes
tree_root root = {.left_branch = unjoined_nodes[0],
.right_branch = unjoined_nodes[1],
.extra_branch = unjoined_nodes[2],
.left_dist = (M(0, 1) + M(0, 2) - M(1, 2)) / 2.0,
.right_dist = (M(0, 1) + M(1, 2) - M(0, 2)) / 2.0,
.extra_dist = (M(0, 2) + M(1, 2) - M(0, 1)) / 2.0};
//*empty_node_ptr++ = root;
out_tree->root = root;
free(unjoined_nodes);
matrix_free(&local_copy);
return 0;
}
void traverse_all(tree_node *current, visitor_ctx *v, void *context) {
if (v->pre) {
v->pre(current, context);
}
if (current->left_branch) {
traverse_all(current->left_branch, v, context);
}
if (v->process) {
v->process(current, context);
}
if (current->right_branch) {
traverse_all(current->right_branch, v, context);
}
if (v->post) {
v->post(current, context);
}
}
void newick_sv_pre(tree_node *current, void *ctx) {
if (current->left_branch) {
printf("(");
}
}
void newick_sv_process(tree_node *current, void *ctx) {
if (current->left_branch) {
if (current->left_branch->left_branch) {
printf("%d:%lf,", (int)(current->left_support * 100),
current->left_dist);
} else {
printf(":%lf,", current->left_dist);
}
} else {
printf("%s", ((char **)ctx)[current->index]);
}
}
void newick_sv_post(tree_node *current, void *ctx) {
if (!current->right_branch) return;
if (current->right_branch->right_branch) {
printf("%d:%lf)", (int)(current->right_support * 100),
current->right_dist);
} else {
printf(":%lf)", current->right_dist);
}
}
void newick_sv(tree_root *root, char **names) {
visitor_ctx v = {.pre = newick_sv_pre,
.process = newick_sv_process,
.post = newick_sv_post};
printf("(");
traverse_all(root->left_branch, &v, names);
newick_sv_process(&root->as_tree_node, names);
traverse_all(root->right_branch, &v, names);
if (root->right_branch && root->right_branch->right_branch) {
printf("%d:%lf,", (int)(root->right_support * 100), root->right_dist);
} else {
printf(":%lf,", root->right_dist);
}
traverse_all(root->extra_branch, &v, names);
if (root->extra_branch && root->extra_branch->left_branch) {
printf("%d:%lf)", (int)(root->extra_support * 100), root->extra_dist);
} else {
printf(":%lf)", root->extra_dist);
}
printf(";\n");
}