public static void main(String[] args) {
Tree myTree = new Tree();
myTree.insert(50);
myTree.insert(11);
myTree.insert(54);
myTree.insert(45);
myTree.insert(21);
myTree.insert(82);
myTree.insert(3);
myTree.find(50);
myTree.find(21);
myTree.find(100); // test finding a non-existing node
myTree.traverse(0); // in-order traverse
myTree.getSuccessor2(myTree.root);
myTree.getSuccessor2(myTree.root.leftChild); // look for successor of 11
myTree.remove(82); // remove type 1
System.out.print("After removing 82, the tree is :");
myTree.traverse(0);
myTree.insert(82); // recover
System.out.print("After recovering 82, the tree is :");
myTree.traverse(0);
myTree.remove(54); // remove type 2
System.out.print("After removing 54, the tree is :");
myTree.traverse(0);
myTree.remove(11); // remove type 3
System.out.print("After removing 11, the tree is :");
myTree.traverse(0);
}
public static void main(String[] args) throws java.lang.Exception {
BufferedReader br = new BufferedReader(new InputStreamReader(System.in));
Tree tree = new Tree();
int n = Integer.parseInt(br.readLine());
int nn = n - 1;
TreeNode[] treeNodes = new TreeNode[n];
int i = 0;
while (n-- > 0) {
String[] strs = br.readLine().split(" ");
int r = Integer.parseInt(strs[1]);
int n1 = Integer.parseInt(strs[0]);
treeNodes[i] = new TreeNode(n1, r);
i = i + 1;
}
boolean[] x = new boolean[nn + 1];
while (nn-- > 0) {
String[] strs = br.readLine().split(" ");
int s = Integer.parseInt(strs[0]);
int t = Integer.parseInt(strs[1]);
if (!x[s]) {
tree.insert(treeNodes[s]);
x[s] = true;
}
if (!x[t]) {
tree.insert(treeNodes[t]);
x[t] = true;
}
}
tree.levelOrder(tree.root);
}
public void queueTree() { // Builds the queue along with all the subtrees that exist within.
for (int i = 0; i < freqTable.length; i++) {
if (freqTable[i] > 0) {
Tree t = new Tree();
t.insert(freqTable[i], (char) (i + 65));
theQ.insert(t);
}
}
}
/**
* De main wordt gebruikt om de tree te testen.
*
* @param args
*/
public static void main(String[] args) {
// Programmeer een paar cases waarbij
// je laat zien dat de boom werkt
Tree tree = new Tree();
Student student = new Student(1, "Kees");
Student student1 = new Student(2, "Jan");
tree.insert(student);
tree.insert(student1);
Student findStudent = tree.find(2);
System.out.print(findStudent.toString());
// voeg studenten met studentnummers �0802063� tot en met �0824836� toe
// Verwijder de root
// print de studenten op volgorde van studentnummer
}
public void
makeHuffmanTree() { // Goes through the process of combining the two lowest priority subtrees
// and then replacing them within the queue until a single tree is left
while (!theQ.isEmpty()) {
Tree t = new Tree();
Tree left = theQ.remove();
Tree right = theQ.remove();
t.insert(left.root.iData + right.root.iData, '+');
t.root.leftChild = left.root;
t.root.rightChild = right.root;
if (theQ.isEmpty()) {
huffTree = t;
} else {
theQ.insert(t);
}
}
}
public static void main(String args[]) {
stack s = new stack();
s.push(10);
s.push(20);
s.seek();
System.out.println(s.pop());
s.seek();
StackLinked s1 = new StackLinked();
s1.push(3, 4);
s1.push(5, 6);
s1.push(7, 6);
s1.push(8, 6);
s1.print();
Tree t1 = new Tree();
t1.insert(10, 4);
t1.insert(6, 5);
t1.insert(15, 4);
t1.insert(8, 8);
t1.insert(3, 7);
t1.insert(1, 13);
t1.insert(5, 13);
t1.insert(15, 13);
t1.insert(12, 13);
System.out.println("InOrder for tree");
t1.InOrder();
System.out.println("Height for tree is" + t1.Height());
t1.Del(7);
System.out.println("After deletion of 7 PreOrder for tree");
t1.InOrder();
System.out.println("floor of number " + t1.floor(4));
System.out.println("floor of number " + t1.floor(9));
System.out.println("Level Order");
t1.LevelOrder();
LinkedList l = new LinkedList();
l.add(6);
l.add(3);
l.add(2);
l.add(8);
l.add(7);
l.add(1);
l.print();
l.Rev();
l.print();
}