void BinaryTree<T>::printPaths(const Node * a, vector<T> &v) const { v.push_back(a->elem); if(a->left==NULL && a->right==NULL) { typename vector<T>::iterator it; cout << "Path:"; for( it = v.begin(); it < v.end(); it++ ) { cout <<" "<<*it; } cout << endl; return; } if(a->left!=NULL) { printPaths(a->left,v); v.pop_back(); } if(a->right!=NULL) { printPaths(a->right,v); v.pop_back(); } }
void BinaryTree<T>::printPaths(Node * subRoot, vector<T> printMe) const { if(subRoot->left==NULL && subRoot->right==NULL) { cout << "Path: "; for(int i=0; i<printMe.size(); i++) { cout << printMe[i] << " "; } cout << endl; return; } if(subRoot->left!=NULL) { printMe.push_back((subRoot->left)->elem); printPaths(subRoot->left, printMe); printMe.pop_back(); } if(subRoot->right!=NULL) { printMe.push_back((subRoot->right)->elem); printPaths(subRoot->right, printMe); printMe.pop_back(); } }
void BinaryTree<T>::printPaths(const Node *sub_root, std::vector<T> vec) const { // base case: if(sub_root == NULL) { return; } // resursive case: else { vec.push_back(sub_root->elem); if( (sub_root->left == NULL)&&(sub_root->right == NULL) ) { cout << "Path:"; for(int i = 0; i < vec.size(); i = i+1) { cout << " " << vec[i]; } cout << endl; } else { printPaths(sub_root->left, vec); printPaths(sub_root->right, vec); } } }
void BinaryTree<T>::printPaths(Node * subRoot, list<T> path) const { if(subRoot == NULL) return; if(subRoot->left == NULL && subRoot->right == NULL){ path.push_back(subRoot->elem); size_t temp = path.size(); cout << "Path:"; for(size_t i = 0; i < temp; i++){ cout<< ' ' << path.front(); path.pop_front(); } cout<<endl; return; } else{ path.push_back(subRoot->elem); printPaths(subRoot->left , path); printPaths(subRoot->right , path); } // your code here }
void printPaths(node *root, int path[], int plength) { if (root == NULL) { return ; } path[plength] = root->data; plength++; if (root->left == NULL && root->right == NULL) { printArray(path, plength); } printPaths(root->right, path, plength); printPaths(root->left, path, plength); }
int main() { auto tree = BinTree<int>(); std::cout << "size: " << tree.size() << '\n'; std:: cout<< "maxDepth: " << tree.maxDepth() << '\n'; std::cout << "traverse in order: "; tree.traverse_inorder(); std:: cout << '\n'; tree.insert(2); tree.insert(1); tree.insert(3); std::cout << tree.root->value << '\n'; std::cout << tree.root->left->value << '\n'; std::cout << tree.root->right->value << '\n'; std::cout << "lookup 1: " << tree.lookup(1) << '\n'; std::cout << "lookup 7: " << tree.lookup(7) << '\n'; std::cout << "size: " << tree.size() << '\n'; std:: cout<< "maxDepth: " << tree.maxDepth() << '\n'; tree.insert(5); tree.insert(7); std::cout << "size: " << tree.size() << '\n'; std::cout << "maxDepth: " << tree.maxDepth() << '\n'; std::cout << "traverse in order: "; tree.traverse_inorder(); std:: cout << '\n'; std::cout << "hasPathSum\n"; std::cout << tree.hasPathSum(3) << '\n'; std::cout << tree.hasPathSum(4) << '\n'; std::cout << tree.hasPathSum(17) << '\n'; tree.printPaths(); tree.insert(4); std::cout << "after insert(4):\n"; tree.printPaths(); std::cout << "-------------\n"; std::cout << "traverse in order: "; tree.traverse_inorder(); std:: cout << '\n'; tree.mirror(); std::cout << "traverse in order: "; tree.traverse_inorder(); std:: cout << '\n'; }
/*Print All Paths from Root to Leaf - Karumanchi problem 20 (trees)*/ void printPaths(tree_node *root, int *paths, int level){ paths[level] = root->data; if(root->left == NULL && root->right == NULL){ int i = 0; printf("Path : "); for(; i <= level; i++){ printf("%d\t", paths[i]); } printf("\n"); return; } level++; printPaths(root->left, paths, level); printPaths(root->right, paths, level); return; }
void BST<ItemType>::printPaths() { ItemType path[100]; int l = 0; printPaths(root, path, l); }
void BinaryTree<T>::printPaths() const { T* thePaths = new T[500]; int theLength = 0; printPaths(theLength, root, thePaths); // your code here }
main() { struct node *root = build20_5_156(); printPaths(root, NULL); //printf("%s -4\n", hasPathsum(root, -4)? "has Pathsum:": "don't have Pathsum :"); //printf("%s 3\n", hasPathsum(root, 3)? "has Pathsum:": "don't have Pathsum :"); }
void BinaryTree<T>::printPaths(const Node * subRoot, vector<T> & v) const{ if (subRoot == NULL) return; v.push_back(subRoot->elem); if(subRoot->left == NULL && subRoot->right == NULL){ cout<<"Path:"; for(int i = 0; i < (int)v.size(); i++) cout<<" "<<v[i]; cout<<endl; } else{ printPaths(subRoot->left,v); printPaths(subRoot->right,v); } v.pop_back(); }
int main() { struct node* root = NULL; root = build12345(); printf("no of nodes %d\n",size(root)); printPaths(root); return 0; }
void printUtility(struct node *root) { int path[1000]; int pathlen =0; printPaths(root,path,pathlen); }
/*void printUtility(struct node *root) { int path[1000]; int pathlen =0; printPaths(root,path,pathlen); } */ void printPaths(struct node *root,int path[], int pathlen) { if (root == NULL) return ; path[pathlen] = root->data; pathlen = pathlen+1; if(root->left == NULL && root->right == NULL) printArray(path,pathlen); else { printPaths(root->left,path,pathlen); printPaths(root->right,path,pathlen); } }
void printPaths(struct node *node,int *path,int pathLen) { int i; if(node == NULL){ printf("\n"); return; } else{ *(path+pathLen) = node->data; pathLen++; if(node->left == NULL && node->right == NULL) for(i=0;i<pathLen;++i) printf("\t%d",path[i]); printPaths(node->left,path,pathLen); printPaths(node->right,path,pathLen); } }
void printAllPathsToLeaf(tree_node* root){ if(root == NULL) return; printf("All Paths to Leaf\n"); int height = height_of_tree(root); int *paths = (int *)malloc(sizeof(int)*height); printPaths(root, paths, 0); printf("Path with sum = 11 starting from root till a leaf exists ? %d\n",isPathWithSumExists(root, 11)); PrintAllPathExists(root, paths, 0 ,4); free(paths); return; }
int printPaths(struct node *binaryTree, struct listnode *listhead) { if(binaryTree == NULL){ printf("empty tree\n"); return; } PushOnList(&listhead, binaryTree->data); if(binaryTree->left == NULL && binaryTree->right == NULL){ printf("path :"); printlinkedlist(listhead); printf("\n"); return; } if(binaryTree->left != NULL){ printPaths(binaryTree->left, listhead); } if(binaryTree->right != NULL){ printPaths(binaryTree->right, listhead); } return; }
void Circuit::getPaths(gate* g)//gets all paths in the circuit and prints them { Paths.push_back(g); // push this gate into the vector if (Paths.size() > 1) PathDelay+=Paths[Paths.size()-2]->getDelay(); //add delay of previous gate for(std::map<std::string, wire*>::iterator i = wireMap.begin(); i != wireMap.end(); i++) if (i->second->getWSource()->getName() == g->getName()) for (int j = 0; j < i->second->getWDestionations().size(); j++) getPaths(i->second->getWDestionations()[j]); if ((g->getIsFlip() && !g->getFlipIn()) || g->getType() == "output") //if the gate is an output flipflop or normal output printPaths(calcReqTime(g)); Paths.pop_back(); PathDelay-= g->getDelay(); }
int main() { struct node *root = newNode(10); root->left = newNode(8); root->right = newNode(2); root->left->left = newNode(3); root->left->right = newNode(5); root->right->left = newNode(2); /* Print all root-to-leaf paths of the input tree */ printPaths(root); return 0; }
void testPrintPaths() { struct node* rootNode = insert(NULL,5); rootNode = insert(rootNode,4); rootNode = insert(rootNode,8); rootNode = insert(rootNode,3); rootNode = insert(rootNode,7); rootNode = insert(rootNode,9); rootNode = insert(rootNode,2); rootNode = insert(rootNode,1); printPaths(rootNode); }
void printPaths(node *n, int *a, int l) { if(n -> left == NULL && n -> right == NULL) { int i; a = realloc(a, ++l * sizeof(int)); *(a + l - 1) = n -> data; printf("\n"); for(i = 0;i < l;i++) printf("%d ", a[i]); return; } else { a = realloc(a, ++l * sizeof(int)); *(a + l - 1) = n -> data; printPaths(n -> left, a, l); printPaths(n -> right, a, l); } }
void printTreeinfo(node *root) { int paths[102]; printf("Tree size = %d\n", size(root)); printf("Tree max Depth = %d\n", maxDepth(root)); // printf("Tree min Valuse = %d\n", bst_minValue(root)); // printf("Tree max Valuse = %d\n", bst_maxValue(root)); printf("Tree min Valuse = %d\n", minValue(root)); printf("Tree max Valuse = %d\n", maxValue(root)); printf("Has Path sum 40 = %d\n", hasPathSum(root, 40)); printf("Has Path sum 20 = %d\n", hasPathSum(root, 20)); printPaths(root, paths, 0); }
int main() { node *root = NULL, *rootb = NULL, *rooth = NULL, *temp; int sum = 25, *a, l = 0; a = (int *)malloc(sizeof(int)); root = insert(root, 10); root = insert(root, 7); root = insert(root, 6); root = insert(root, 8); root = insert(root, 13); root = insert(root, 15); root = insert(root, 11); printf("Part2: Size: \t%d\n", size(root, 0)); printf("Part3: Depth: \t%d\n", maxDepth(root)); printf("Part4: Min: \t%d\n", minValue(root)); printf("Part5: Post: \t");printPostorder(root);printf("\n"); printf("Part6: Path Sum: %d %s\n", sum, hasPathSum(root, sum)?"True":"False"); printf("Part7: Leaf Paths");printPaths(root, a, l); printf("\n"); inorder(root);printf("\n"); printf("Part8: Mirror: ");mirror(root);inorder(root);printf("\n"); rootb = insert(rootb, 10); rootb = insert(rootb, 7); rootb = insert(rootb, 6); rootb = insert(rootb, 8); rootb = insert(rootb, 13); rootb = insert(rootb, 15); rootb = insert(rootb, 11); printf("Part9: doubleTree: ");doubleTree(rootb);inorder(rootb);printf("\n"); printf("Part10: sameTree: %s\n", sameTree(root, root)?"True":"False"); mirror(root); printf("Part11: isBST: %s\n", isBST(root)?"True":"False"); printf("Part12: Tree list: "); rooth = treeList(root); temp = rooth -> left; printf("%d ", rooth -> data); while(temp != rooth) { printf("%d ", temp -> data); temp = temp -> left; } printf("\n"); return(0); }
void BinaryTree<T>::printPaths(int length, Node* subRoot, T* &paths) const { if (subRoot == NULL) return; paths[length] = subRoot->elem; length = length+1; if (subRoot->left== NULL && subRoot->right == NULL) { cout << "Path: "; for (int i = 0; i < length; i++) { cout<<paths[i]<< " "; } cout <<endl; } printPaths(length, subRoot->left, paths); printPaths(length, subRoot->right, paths); }
void BST<ItemType>::printPaths(TreeNode<ItemType> *node, ItemType path[], int pathLength) { if(root == NULL) { cout << "Tree is empty" << endl; return; } else if(node == NULL) return; path[pathLength] = node->element; pathLength++; if(node->left == NULL && node->right == NULL) { printArray(path, pathLength); } else { printPaths(node->left, path, pathLength); printPaths(node->right, path, pathLength); } }
main() { int sum=3; int pathLen=0; int path[100]; struct node *root; root=build(); printf("\n\n"); print(root); printf("\n\n"); printf("root-to-leaf paths are :\n\n"); printPaths(root,path,pathLen); printf("\n\n"); }
/* Driver program to test above functions*/ int main() { /* Constructed binary tree is 10 / \ 8 2 / \ / 3 5 2 */ struct node *root = newnode(10); root->left = newnode(8); root->right = newnode(2); root->left->left = newnode(3); printPaths(root); return 0; }
int main() { struct node* root = NewNode(4); insert(root, 2); insert(root, 5); insert(root, 1); insert(root, 3); printf("size of tree: %d\n", size(root)); printf("maxDepth of tree: %d\n", maxDepth(root)); printf("minValue of tree: %d\n", minValue(root)); printTree(root); printf("\n"); printPostorder(root); printf("\n"); if (hasPathSum(root, 9)) printf("Tree has a root-to-leaf path that sums to 9\n"); printPaths(root); return 0; }
/* Driver program to test above functions*/ int main() { /* Constructed binary tree is 10 / \ 8 2 / \ / 3 5 2 */ struct node *root = newnode(10); root->left = newnode(8); root->right = newnode(2); root->left->left = newnode(3); root->left->right = newnode(5); root->right->left = newnode(2); int sum=0; printPaths(root, &sum); printf("Total Sum is %d\n",sum); printf("Total sum is %d\n",Sum(root, 0)); getchar(); return 0; }
void bellmanFord(int startNode) { printf("\nBellman Ford:"); int *distance = (int*)malloc(sizeof(int)*nrOfVerteces); int *parents = (int*)malloc(sizeof(int)*nrOfVerteces); int i; for(i=0; i<nrOfVerteces; i++) { if(i == startNode) { distance[i] = 0; parents[i] = i; } else { distance[i] = MAX; parents[i] = i; } } int x, y; for(i=0; i < nrOfVerteces-1; i++) for(x=0; x<nrOfVerteces; x++) for(y=0; y<nrOfVerteces; y++) if(x != y && adjMatrix[x][y] != 0) if(distance[x] + adjMatrix[x][y] < distance[y]) { distance[y] = distance[x] + adjMatrix[x][y]; parents[y] = x; } printPaths(parents, distance, startNode); }