LUJAJA LUVUGA [[email protected]]
Allowed editors: vi, vim, emacs All your files will be compiled on Ubuntu 20.04 LTS using gcc, using the options -Wall -Werror -Wextra -pedantic -std=gnu89 All your files should end with a new line A README.md file, at the root of the folder of the project, is mandatory Your code should use the Betty style. It will be checked using betty-style.pl and betty-doc.pl You are not allowed to use global variables No more than 5 functions per file Unless specified otherwise, you are not allowed to use the standard library. Any use of functions like printf, puts, … is totally forbidden. In the following examples, the main.c files are shown as examples. You can use them to test your functions, but you don’t have to push them to your repo (if you do we won’t take them into account). We will use our own main.c files at compilation. Our main.c files might be different from the one shown in the examples The prototypes of all your functions should be included in your header file called sort.h Don’t forget to push your header file All your header files should be include guarded A list/array does not need to be sorted if its size is less than 2.
sorts an array of integers in ascending order using the Bubble sort algorithm
Prototype: void bubble_sort(int *array, size_t size); You’re expected to print the array after each time you swap two elements (See example below) file 0-O, contains the big O notations of the time complexity of the Bubble sort algorithm, with 1 notation per line:
in the best case in the average case in the worst case
sorts a doubly linked list of integers in ascending order using the Insertion sort algorithm
Prototype: void insertion_sort_list(listint_t **list); You are not allowed to modify the integer n of a node. You have to swap the nodes themselves. You’re expected to print the list after each time you swap two elements (See example below) file 1-O, contains the big O notations of the time complexity of the Insertion sort algorithm, with 1 notation per line:
in the best case in the average case in the worst case
sorts an array of integers in ascending order using the Selection sort algorithm
Prototype: void selection_sort(int *array, size_t size); You’re expected to print the array after each time you swap two elements (See example below) file 2-O, contains the big O notations of the time complexity of the Selection sort algorithm, with 1 notation per line:
in the best case in the average case in the worst case
sorts an array of integers in ascending order using the Quick sort algorithm
Prototype: void quick_sort(int *array, size_t size); You must implement the Lomuto partition scheme. The pivot should always be the last element of the partition being sorted. You’re expected to print the array after each time you swap two elements (See example below) file 3-O, cintains the big O notations of the time complexity of the Quick sort algorithm, with 1 notation per line:
in the best case in the average case in the worst case