Two stacks of the same type are the same if they have the same number of elements and their elements at the corresponding positions are the same. Overload the relational operator == for the class stackType that returns true if two stacks of the same type are the same; it returns false otherwise. Also, write the definition of the function template to overload this operator.

Two stacks of the same type are the same if they have the same number of elements and their elements at the corresponding positions are the same. Overload the relational operator == for the class stackType that returns true if two stacks of the same type are the same; it returns false otherwise. Also, write the definition of the function template to overload this operator.

C++ Programming: From Problem Analysis to Program Design

8th Edition

ISBN:9781337102087

Author:D. S. Malik

Publisher:D. S. Malik

Chapter17: Linked Lists

Section: Chapter Questions

Problem 10PE

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Two stacks of the same kind are the same if they contain the same number of elements and have the same items at the same places. Overload the relational operator == for the class stackType, which returns true if two stacks of the same type are identical; otherwise, it returns false. Also, write the function template definition to overload this operator. Create a programme to test the overloaded operators and functions of the stackType class.
Which of the following terms best describes the case where a Stack class is implemented using an internal instance of List? Choose only one option.(a) Association(b) Specialization(c) Genericity(d) Composition(e) Singularity
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Implement a LinkedList class that stores integers using dynamic memory and a proper main program to test it. The following member functions need to be properly implemented and tested: 1. Default constructor. 2. Parmetrized Constructor. 3. Sum. 4. Average. 5. InsertAtHead. 6. InsertAtTail. 7. Delete. 8. Pop. 9. Circular. 10. Display. Sample answer is also provided.
by using c++ & datastructure 1- Implement a class template Node that has the following declaration:template class Node { T info; Node* next; public: Node(T, Node* n=0); Node* getNext(); void setNext(Node* ); T getInfo (); void setInfo (T); }; 2- Create a class template SLL, which is a single linked list with the following declaration: template class SLL { Node *head, *tail; public: SLL(){head = tail = 0;} void addtoHead(T); void addtoTail(T); T removeFromHead(); T removeFromTail(); T getValueAtHead();//a function that returns the value at head without deleting it bool isEmpty(); void clear(); friend ostream& operator<<(ostream&, const SLL&); }; 3- Implement the class Template StackSLL which uses the linked list you created in part (2). The class should have the functions: push , pop , top, isEmpty, and clear. Each of the functions should use the available member functions of SLL. 4- Implement the class Template QueueSLL which uses the linked list you created in…
Write a generic class called GenericStack<T> that represents a stack structure. A stack structure follow the strategy last-in-first-out, which means that the last element added to the stack, is the first to be taken out. The GenericStack class has the following attributes and methods: --An attribute ArrayList<T> elements which represents the elements of the stack.(All of you refer collection framework for ArrayList. or you can use an array to hold the elements of Stack.)[Refer the following links to have intro on ArrayList: https://www.w3schools.com/java/java_arraylist.asp, https://www.geeksforgeeks.org/arraylist-in-java/] --A constructor that creates the ArrayList or an Array --A method push(T e) which adds the element to the ArrayList<T> or array. --A method pop() which removes the last element of the ArrayList<T> (last element added), if the list is not already empty and returns it. --A method print() which prints the elements of the stack starting from the…
In c++ , write a program to create a structure of a node, create a class Linked List. Implement all operations of a linked list as member function of this class. • create_node(int); • insert_begin(); • insert_pos(); • insert_last(); • delete_pos(); • sort(); • search(); • update(); • reverse(); • display(); ( Drop coding in words with screenshot of output as well )
For this assignment, you need to implement link-based List and derivative ADTs in Java. To complete this, you will need the following: A LinkNode structure or class which will have two attributes - a data attribute and a pointer attribute to the next node. The data attribute of the LinkNode should be the Money class of Lab 1. A Singly Linked List class which will be composed of three attributes - a count attribute, a LinkedNode pointer/reference attribute pointing to the start of the list and a LinkedNode pointer/reference attribute pointing to the end of the list. Since this is a class, make sure all these attributes are private. The attribute names for the Node and Linked List are the words in bold in #1 and #2. For the Linked List, implement the most common linked-list behaviors as explained in class - getters/setters/constructors/destructors for the attributes of the class, (a) create new list, (b) add data, (c) delete data, (d) find data, (e) count of data items in the…
Suppose that you are required to create a C++ class with additional method, instead of a struct in a linked list. You are required to use a class as a node.Write the definition of the node as a class, so that nodeType is a class and member variables are private, with its proper methods and properties. The node should be a template.
Programming Exercise 8 asks you to redefine the class to implement the nodes of a linked list so that the instance variables are private. Therefore, the class linkedListType and its derived classes unorderedLinkedList and orderedLinkedList can no longer directly access the instance variables of the class nodeType. Rewrite the definitions of these classes so that these classes use the member functions of the class nodeType to access the info and link fields of a node. Also write programs to test various operations of the classes unorderedLinkedList and orderedLinkedList. template <class Type>class nodeType{public:const nodeType<Type>& operator=(const nodeType<Type>&);//Overload the assignment operator.void setInfo(const Type& elem);//Function to set the info of the node.//Postcondition: info = elem;Type getInfo() const;//Function to return the info of the node.//Postcondition: The value of info is returned.void setLink(nodeType<Type>…
Write an iterable Stack client that has a static method copy() that takes a stackof strings as argument and returns a copy of the stack. Note : This ability is a primeexample of the value of having an iterator, because it allows development of such functionality without changing the basic API.
A) Write a generic Java queue class (a plain queue, not a priority queue). Then, call it GenericQueue, because the JDK already has an interface called Queue. This class must be able to create a queue of objects of any reference type. Consider the GenericStack class shown below for some hints. Like the Stack class below, the GenericQueue should use an underlying ArrayList<E>. Write these methods and any others you find useful: enqueue() adds an E to the queue peek() returns a reference to the object that has been in the queue the longest, without removing it from the queue dequeue() returns the E that has been in the queue the longest, and removes it from the queue contains(T t) returns true if the queue contains at least one object that is equal to t *in the sense that calling .equals() on the object with t the parameter returns true.* Otherwise contains returns false. size() and isEmpty() are obvious.