If a key byte does not exist, it will be added into the corresponding node in sorted order (InsertSort).
Node Search Comparisons Comparisons Type Method on key bytes on key bytes for Keys BinarySearch for InsertSort Node2 Binary <= 2 <=1 search Node4 Binary <= 3 <=3 search Node16 Binary <= 5 <=15 search Node32 Binary <= 6 <=31 search Node64 Indexing 0 0 with key bytes Node256 Indexing 0 0 with key bytes Algorithm1a): insert a DMA mapping into the ART 01: InsertART(GPA, GIOVA, root) 02: return Insert(GPA, GIOVA, 63, root) Fig.
It consists in evaluating the run-times of three well-known sorting algorithms: QuickSort, BubbleSort and InsertSort. A thousand different arrays of different sizes were randomly generated for the tests.
The empirical results show that the fastest sorting algorithm is Quicksort, followed by Insertsort, then by Bubblesort.
Keywords: sorting algorithm, complexity, QuickSort, BubbleSort, InsertSort
The empirical evaluations presented in this paper confirmed the theoretical complexities of the three sorting algorithms: Regardless the programming language used for implementation, the most efficient algorithm is QuickSort followed by Insertsort, then by BubbleSort.