Chapter 7: Problem 26
Write an algorithm that checks if an essentially complete binary tree is a heap. Analyze your algorithm and show the results using order notation.
Chapter 7: Problem 26
Write an algorithm that checks if an essentially complete binary tree is a heap. Analyze your algorithm and show the results using order notation.
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Get started for freeAn algorithm called Shell Sort is inspired by Insertion Sort's ability to take advantage of the order of the elements in the list. In Shell Sort, the entire list is divided into noncontiguous sublists whose elements are a distance \(h\) apart for some number \(h\). Each sublist is then sorted using Insertion Sort. During the next pass, the value of \(h\) is reduced, increasing the size of each sublist. Usually the value of each \(h\) is chosen to be relatively prime to: its previous value. The final pass uses the value 1 for \(h\) to sort the list. Write an algorithm for Shell Sort, study its performance, and compare the result with the performance of Insertion Sort.
Implement the Insertion Sort algorithm (Algorithm 7.1 ), run it on your system, and study its best-case, average-case, and worst-case time complexities using several problem instances.
Use the divide-and-conquer approach to write a nonrecursive Mergesort algorithm. Analyze your algorithm, and show the results using order notation. Note that it will be necessary to explicitly maintain a stack in your algorithm.
Show that there are \(n(n-1) / 2\) inversions in a permutation of \(n\) distinct ordered elements with respect to its transpose.
In the process of rebuilding the master list, the Radix Sort algorithm (Algorithm 7.6) wastes a lot of time examining empty sublists when the number of piles (radix) is large. Is it possible to check only the sublists that are not empty?
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