Given main.py and a Node class in Node.py, complete the LinkedList class (a linked list of nodes) in LinkedList.py by writing the insert_in_ascending_order()

Linked List, create your own code. (Do not use the build in function or classes of Java or from the textbook). Create a LinkedList class: Call the class MyLinkedList, (hint) Create a second class called Node.java and use it, remember in the class I put the Node class inside the LinkedList Class, but you should do it outside. This class should haveo Variables you may need for a Node,o (optional) Constructor Your linked list is of an int type. (you may do it as General type as <E>) For this Linked List you need to have the following methods: add, addAfter, remove, size, contain, toString, compare, addInOrder. This is just a suggestion, if you use Generic type, you must modify this Write a main function or Main class to test all the methods,o Create a 2 linked list and test all your methods. (Including the compare)

Create a ToArray function for the LinkedList class that returns an array from a linked list instance.

QueueArray.java This file implements QueueInterface.java This file has * attributes of an array holding queue elements. An integer represents front * index, an integer for rear index, and an integer to keep track number of * elements in the queue. An overloaded constructor accepts an integer for * initializing the queue size, e.g. array size. An enqueue method receives an * object and place the object into the queue. The enqueue method will throw * exception with message "Overflow" when the queue is full. A dequeue method * returns and removes an object from front of the queue. The dequeue method * will throw exception with message "Underflow" when the queue is empty. A size * method returns number of elements in the queue. A toString method returns a * String showing size and all elements in the queue.

struct insert_at_back_of_sll { // Function takes a constant Book as a parameter, inserts that book at the // back of a singly linked list, and returns nothing. void operator()(const Book& book) { /// TO-DO (3) /// // Write the lines of code to insert "book" at the back of "my_sll". Since // the SLL has no size() function and no tail pointer, you must walk the // list looking for the last node. // // HINT: Do not attempt to insert after "my_sll.end()". // ///// END-T0-DO (3) ||||// } std::forward_list& my_sll; };

Given main(), define an InsertAtEnd() member function in the ItemNode class that adds an element to the end of a linked list. DO NOT print the dummy head node.

Linked List, create your own code. (Do not use the build in function or classes of Java or from the textbook). Create a LinkedList class: Call the class MyLinkedList, (hint) Create a second class called Node.java and use it, remember in the class I put the Node class inside the LinkedList Class, but you should do it outside. This class should haveo Variables you may need for a Node,o (optional) Constructor Your linked list is of an int type. (you may do it as General type as <E>) For this Linked List you need to have the following methods: add, addAfter, remove, size, contain, toString, compare, addInOrder. This is just a suggestion, if you use Generic type, you must modify this Write a main function or Main class to test all the methods,o Create a 2 linked list and test all your methods. (Including the compare)

Below you're given a Node class and a LinkedList class. You will implement a method for the LinkedList class named "delete48in148". That is, whenever there is a sequence of nodes with values 1, 4, 8, we delete the 4 and 8. For exCample, Before: 1 -> 4 -> 8 LAfter: 1 Before: 7 -> 1 -> 4 -> 8 -> 9 -> 4 -> 8 After: 7 -> 1 -> 9 -> 4 -> 8 Before: 7 -> 1 -> 4 -> 8 -> 4 -> 8 -> 4 -> 8 -> 9 After: 7 -> 1 -> 9 Note from the above example that, after deleting one instance of 48, there may be new instances of 148 formed. You must delete ALL of them. Requirement: Your implementation must be ITERATIVE (i.e., using a loop). You must NOT use recursion. Recursive solutions will NOT be given marks. import ... # No other import is allowed

Send me your own work not AI generated response or plagiarised response. If I see these things, I'll give multiple downvotes and will definitely report.

Given the following definition for a LinkedList: // LinkedList.h class LinkedList { public: LinkedList(); // TODO: Implement me void printEveryOther() const; private: struct Node { int data; Node* next; }; Node * head; }; // LinkedList.cpp #include "LinkedList.h" LinkedList::LinkedList() { head = nullptr; } Implement the function printEveryOther, which prints every other data value (i.e. those at the odd indices assuming 0-based indexing).

Lab 19 Building a linked list Start this lab with the code listed below. The LinkedList class defines the rudiments of the code needed to build a linked list of Node objects. You will first complete the code for its addFirst method. This method is passed an object that is to be added to the beginning of the list. Write code that links the passed object to the list by completing the following tasks in order: 1. Create a new Node object. 2. Make the data variable in the new Node object reference the object that was passed to addELKEt, 3. Make the next variable in the new Node object reference the object that is currently referenced in variable first. 4, Make variable first reference the new Node. Test your code by running the main method in the LinkedLiatBunner class below. Explain, step by step, why each of the above operations is necessary. Why are the string objects in the reverse order from the way they were added? public class LinkedList private Node first; public LinkedList () {...