Sereja likes to hang around trees. A tree is an undirected graph on N vertices with N-1 edges and no cycles. Sereja has his own peculiar way of comparing two trees. To describe it, let's start with the way Sereja stores a tree. For every tree, Sereja has a value V – the root of the tree, and for every vertex i, he has an ordered list Q[i] with L[i] elements – Q[i][1], Q[i][2], ., Q[i][L[i]] which are children of the ... vertex i. Sereja assumes two trees to be equal if their roots are the same and for every i, the ordered list Q[i] is the same in both the trees that Sereja compares. So if Sereja has tree#1 given as [V=1, Q[1]=[2, 3], Q[2]=[], Q[3]=[] and tree#2 given as [V=1, Q[1]=[3, 2], Q[2]=], Q[3]=[]], they will be considered different because Q[1] in the first tree is not equal to Q[1] in the second tree.

Sereja likes to hang around trees. A tree is an undirected graph on N vertices with N-1 edges and no cycles. Sereja has his own peculiar way of comparing two trees. To describe it, let's start with the way Sereja stores a tree. For every tree, Sereja has a value V – the root of the tree, and for every vertex i, he has an ordered list Q[i] with L[i] elements – Q[i][1], Q[i][2], ., Q[i][L[i]] which are children of the ... vertex i. Sereja assumes two trees to be equal if their roots are the same and for every i, the ordered list Q[i] is the same in both the trees that Sereja compares. So if Sereja has tree#1 given as [V=1, Q[1]=[2, 3], Q[2]=[], Q[3]=[] and tree#2 given as [V=1, Q[1]=[3, 2], Q[2]=], Q[3]=[]], they will be considered different because Q[1] in the first tree is not equal to Q[1] in the second tree.

Name: Urgent JAVA Code required:ExampleInput:41 1 2 2Output:72 Sereja likes
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Description: Urgent JAVA Code required:ExampleInput:41 1 2 2Output:72 Sereja likes to hang around trees. A tree is an undirected graph on N vertices withN-1 edges and no cycles. Sereja has his own peculiar way of comparing two trees.To describe it, let's start wi

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

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Write a program that will undertake a range search of all elements lying within limits a, b along a dimension i of the multidimensional data set, represented as a k-d tree. For example, given the data set {(7, 5), (4, 2), (6, 8), (1, 4), (3, 5), (2, 4), (3, 7), (9, 1), (6, 6), (5, 1)} represented as a k-d tree (k = 2), a range search of data elements lying within (a = 3, b = 7) along dimension i = 2 yields {(7, 5), (1, 4), (3, 5), (3, 7), (6, 6)}
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