Write a program that reads a line of text, changes each uppercase letter to lowercase, and places each letter both in a queue and onto a stack. The program should then verify whether the line of text is a palindrome (a set of letters or numbers that is the same whether read forward or backward). Cannot use Library, have to use queueADT class as shown in the below, "Queue Demo." Thank you, will up vote. #include   #include using namespace std; template class queueADT { public:     virtual bool isEmptyQueue() const = 0;     virtual bool isFullQueue() const = 0;     virtual void initializeQueue() = 0;     virtual Type front() const = 0; //Function to return the first element of the queue.     virtual Type back() const = 0; //Function to return the last element of the queue.     virtual void addQueue(const Type& queueElement) = 0; //Function to add queueElement to the queue.     virtual void deleteQueue() = 0; //Function to remove the first element of the queue. }; template class queueType : public queueADT { private:     int maxQueueSize; //variable to store the maximum queue size     int count;        //variable to store the number of elements in the queue     int queueFront;   //variable to point to the first element of the queue     int queueRear;    //variable to point to the last element of the queue     Type *list;       //pointer to the array that holds the queue elements  public:     queueType(int queueSize = 100) //Constructor     {         if (queueSize <= 0)         {             cerr << "Size of the array to hold the queue must "                 << "be positive." << endl;             cerr << "Creating an array of size 100." << endl;             maxQueueSize = 100;         }         else             maxQueueSize = queueSize;   //set maxQueueSize to queueSize         queueFront = 0;                 //initialize queueFront         queueRear = maxQueueSize - 1;   //initialize queueRear         count = 0;         list = new Type[maxQueueSize];  //create the array to hold the queue elements     }     queueType(const queueType& otherQueue) //Copy constructor     {         maxQueueSize = otherQueue.maxQueueSize;         queueFront = otherQueue.queueFront;         queueRear = otherQueue.queueRear;         count = otherQueue.count;         list = new Type[maxQueueSize];         //copy other queue in this queue         for (int j = queueFront; j <= queueRear; j = (j + 1) % maxQueueSize)             list[j] = otherQueue.list[j];     } //end copy constructor     ~queueType() //Destructor     {         delete[] list;     }     const queueType& operator=(const queueType& otherQueue) //Overload the assignment operator.     {         int j;         if (this != &otherQueue) //avoid self-copy         {             maxQueueSize = otherQueue.maxQueueSize;             queueFront = otherQueue.queueFront;             queueRear = otherQueue.queueRear;             count = otherQueue.count;             delete[] list;             list = new Type[maxQueueSize];             //copy other queue in this queue             if (count != 0)                 for (j = queueFront; j <= queueRear; j = (j + 1) % maxQueueSize)                     list[j] = otherQueue.list[j];         } //end if         return *this;     }     bool isEmptyQueue() const //Function to determine whether the queue is empty.     {         return (count == 0);     } //end isEmptyQueue     bool isFullQueue() const //Function to determine whether the queue is full.     {         return (count == maxQueueSize);     } //end isFullQueue     void initializeQueue() //Function to initialize the queue to an empty state.     {         queueFront = 0;         queueRear = maxQueueSize - 1;         count = 0;     }     Type front() const //Function to return the first element of the queue.     {         assert(!isEmptyQueue());         return list[queueFront];     }     Type back() const //Function to return the last element of the queue.     {         assert(!isEmptyQueue());         return list[queueRear];     } //end back     void addQueue(const Type& newElement) //Function to add queueElement to the queue.     {         if (!isFullQueue())         {             queueRear = (queueRear + 1) % maxQueueSize; //use mod                                                         //operator to advance queueRear                                                           //because the array is circular             count++;             list[queueRear] = newElement;         }         else             cerr << "Cannot add to a full queue." << endl;     }     void deleteQueue()  //Function to remove the first element of the queue.     {         if (!isEmptyQueue())         {             count--;           Can't share the rest of the demo code because of the character limit.

Database System Concepts
7th Edition
ISBN:9780078022159
Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan
Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan
Chapter1: Introduction
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Write a program that reads a line of text, changes each uppercase letter to lowercase, and places each letter both in a queue and onto a stack. The program should then verify whether the line of text is a palindrome (a set of letters or numbers that is the same whether read forward or backward).

Cannot use <queue> Library, have to use queueADT class as shown in the below, "Queue Demo."

Thank you, will up vote.

#include <iostream> 
#include <cassert>
using namespace std;

template <class Type>
class queueADT
{
public:
    virtual bool isEmptyQueue() const = 0;
    virtual bool isFullQueue() const = 0;
    virtual void initializeQueue() = 0;
    virtual Type front() const = 0; //Function to return the first element of the queue.
    virtual Type back() const = 0; //Function to return the last element of the queue.
    virtual void addQueue(const Type& queueElement) = 0; //Function to add queueElement to the queue.
    virtual void deleteQueue() = 0; //Function to remove the first element of the queue.
};

template <class Type>
class queueType : public queueADT<Type>
{
private:
    int maxQueueSize; //variable to store the maximum queue size
    int count;        //variable to store the number of elements in the queue
    int queueFront;   //variable to point to the first element of the queue
    int queueRear;    //variable to point to the last element of the queue
    Type *list;       //pointer to the array that holds the queue elements 

public:
    queueType(int queueSize = 100) //Constructor
    {
        if (queueSize <= 0)
        {
            cerr << "Size of the array to hold the queue must "
                << "be positive." << endl;
            cerr << "Creating an array of size 100." << endl;

            maxQueueSize = 100;
        }
        else
            maxQueueSize = queueSize;   //set maxQueueSize to queueSize

        queueFront = 0;                 //initialize queueFront
        queueRear = maxQueueSize - 1;   //initialize queueRear
        count = 0;
        list = new Type[maxQueueSize];  //create the array to hold the queue elements
    }

    queueType(const queueType<Type>& otherQueue) //Copy constructor
    {
        maxQueueSize = otherQueue.maxQueueSize;
        queueFront = otherQueue.queueFront;
        queueRear = otherQueue.queueRear;
        count = otherQueue.count;

        list = new Type[maxQueueSize];

        //copy other queue in this queue
        for (int j = queueFront; j <= queueRear; j = (j + 1) % maxQueueSize)
            list[j] = otherQueue.list[j];
    } //end copy constructor


    ~queueType() //Destructor
    {
        delete[] list;
    }

    const queueType<Type>& operator=(const queueType<Type>& otherQueue) //Overload the assignment operator.
    {
        int j;

        if (this != &otherQueue) //avoid self-copy
        {
            maxQueueSize = otherQueue.maxQueueSize;
            queueFront = otherQueue.queueFront;
            queueRear = otherQueue.queueRear;
            count = otherQueue.count;

            delete[] list;
            list = new Type[maxQueueSize];

            //copy other queue in this queue
            if (count != 0)
                for (j = queueFront; j <= queueRear; j = (j + 1) % maxQueueSize)
                    list[j] = otherQueue.list[j];
        } //end if

        return *this;
    }


    bool isEmptyQueue() const //Function to determine whether the queue is empty.
    {
        return (count == 0);
    } //end isEmptyQueue


    bool isFullQueue() const //Function to determine whether the queue is full.
    {
        return (count == maxQueueSize);
    } //end isFullQueue

    void initializeQueue() //Function to initialize the queue to an empty state.
    {
        queueFront = 0;
        queueRear = maxQueueSize - 1;
        count = 0;
    }

    Type front() const //Function to return the first element of the queue.
    {
        assert(!isEmptyQueue());
        return list[queueFront];
    }

    Type back() const //Function to return the last element of the queue.
    {
        assert(!isEmptyQueue());
        return list[queueRear];
    } //end back

    void addQueue(const Type& newElement) //Function to add queueElement to the queue.
    {
        if (!isFullQueue())
        {
            queueRear = (queueRear + 1) % maxQueueSize; //use mod
                                                        //operator to advance queueRear  
                                                        //because the array is circular
            count++;
            list[queueRear] = newElement;
        }
        else
            cerr << "Cannot add to a full queue." << endl;
    }


    void deleteQueue()  //Function to remove the first element of the queue.
    {
        if (!isEmptyQueue())
        {
            count--;
         

Can't share the rest of the demo code because of the character limit.

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