C++ Static Stack Template In this chapter you studied IntStack, a class that implements a static...

C++

Static Stack Template In this chapter you studied IntStack, a class that implements a static stack of integers. Write a template that will create a static stack of any data type. Demonstrate the class with a driver program.
Dynamic Stack Template In this chapter you studied DynIntStack, a class that implements a dynamic stack of integers. Write a template that will create a dynamic stack of any data type. Demonstrate the class with a driver program.
Static Queue Template In this chapter you studied IntQueue, a class that implements a static queue of integers. Write a template that will create a static queue of any data type. Demonstrate the class with a driver program.
Dynamic Queue Template In this chapter you studied DynIntQueue, a class that implements a dynamic queue of integers. Write a template that will create a dynamic queue of any data type. Demonstrate the class with a driver program.
Error Testing The DynIntStack and DynIntQueue classes shown in this chapter are abstract data types using a dynamic stack and dynamic queue, respectively. The classes do not currently test for memory allocaton errors. Modify the classes so they determine if new nodes cannot be created, and handle the error condition in an appropriate way. (You will need to catch the predefined exception bad_alloc.)

Note: If you have already done Programming Challenges 2 and 4, modify the templates you created.

6. Dynamic String Queue Design a class that stores strings on a dynamic queue. The strings should not be fixed in length. Demonstrate the class with a driver program.

Solutions

Expert Solution

PLEASE GIVE IT A THUMBS UP, I SERIOUSLY NEED ONE, IF YOU NEED ANY MODIFICATION THEN LET ME KNOW, I WILL DO IT FOR YOU

// StaticStack.h

#define MAX 20
using namespace std;
class StaticStack
{
   public:  
       int top=-1;
       int arr[MAX];
       int count=0;
      
   public:                                   // constructor to initialise the stack
   StaticStack()
   {
       top=-1;
       count=0;
       for(int i=0;i<MAX;i++)
           arr[i]=0;
   }
      
   public:
   void push(int ch)                       // method that pushes element into stack
   {
       if(top==MAX)
       {
           cout << "Overflow" << endl;
           return;
       }
       arr[++top]=ch;
       count++;
   }
  
   public:
   int pop()                               // method that pops the top element from stack
   {
       if(top==-1)
       {
           cout << "Underflow" << endl;
           return -1;
       }
       int value=arr[top];
       top--;
       return value;
   }
  
   public:
   int getTop()                           // method that returns top most element of stack
   {
       if(top==-1)
           return -1;
       return arr[top];
   }
  
   public:
   int size()                               // method that returns no.of elements in stack
   {
       return count;
   }
  
   public:
   bool isEmpty()                           // method that says whether the stack is empty or not
   {
       return top==-1;
   }
};

// DynamicStack.h

class DynamicStack
{
   class Node                               // nested class of a node of linked list
   {
       public:
           int data;
           Node *next;
      
       public:
       Node(int d)
       {
           data=d;
           next=NULL;
       }
   };
  
   public:
       Node *head=NULL;
       int count=0;
      
   public:                                   // constructor to initialise the stack
   DynamicStack()
   {
       head=NULL;
       count=0;
   }
      
   public:
   void push(int ch)                       // method that pushes element into stack
   {
       Node *node=new Node(ch);
       if(head==NULL)
       {
           head=node;
       }
       else
       {
           node->next=head;
           head=node;
       }
       count++;
   }
  
   public:
   int pop()                               // method that pops the top element from stack
   {
       if(head==NULL)
           return '\0';
       Node *node=head;
       head=head->next;
       count--;
       return node->data;
   }
  
   public:
   int top()                               // method that returns top most element of stack
   {
       if(head==NULL)
           return '\0';
       return head->data;
   }
  
   public:
   int size()                               // method that returns no.of elements in stack
   {
       return count;
   }
  
   public:
   bool isEmpty()                           // method that says whether the stack is empty or not
   {
       return head==NULL;
   }
};

// StaticQueue.h

#define MAX 20
using namespace std;
class StaticQueue
{
   public:  
       int front=-1,rear=-1;
       int arr[MAX];
       int count=0;
      
   public:                                       // constructor to initialise the queue
   StaticQueue()
   {
       front=-1;
       rear=-1;
       count=0;
       for(int i=0;i<MAX;i++)
           arr[i]=0;
   }
      
   public:
   void enqueue(int ch)                       // method that enqueues element into queue
   {
       if(rear>=MAX)
       {
           cout << "Overflow" << endl;
           return;
       }
       arr[++rear]=ch;
   }
  
   public:
   int dequeue()                               // method that dequeues the element from queue using FIFO rule
   {
       if(front>=MAX)
       {
           cout << "Underflow" << endl;
           return -1;
       }
       int value=arr[++front];
   }
  
   public:
   int top()                                   // method that returns top most element of queue
   {
       if(front==-1 || front>=MAX || rear>=MAX)
       {
           cout << "Underflow" << endl;
           return -1;
       }
       return arr[front];
   }
  
   public:
   int size()                                   // method that returns no.of elements in queue
   {
       return count;
   }
  
   public:
   bool isEmpty()                               // method that says whether the queue is empty or not
   {
       return front>=rear;
   }
};

// DynamicQueue.h

class DynamicQueue
{
   class Node                                   // nested class of a node of linked list
   {
       public:
           int data;
           Node *next;
      
       public:
       Node(int d)
       {
           data=d;
           next=NULL;
       }
   };
  
   public:
       Node *head=NULL,*tail=NULL;
       int count=0;
      
   public:                                       // constructor to initialise the queue
   DynamicQueue()
   {
       head=NULL;
       count=0;
   }
      
   public:
   void enqueue(int ch)                       // method that enqueues element into queue
   {
       Node *node=new Node(ch);
       if(head==NULL)
       {
           head=node;
           tail=node;
       }
       else
       {
           tail->next=node;
           tail=node;
       }
       count++;
   }
  
   public:
   int dequeue()                               // method that dequeues the element from queue using FIFO rule
   {
       if(head==NULL)
           return '\0';
       Node *node=head;
       head=head->next;
       if(head==NULL)
           tail=NULL;
       count--;
       return node->data;
   }
  
   public:
   int top()                                   // method that returns top most element of queue
   {
       if(head==NULL)
           return '\0';
       return head->data;
   }
  
   public:
   int size()                                   // method that returns no.of elements in queue
   {
       return count;
   }
  
   public:
   bool isEmpty()                               // method that says whether the queue is empty or not
   {
       return head==NULL;
   }
};

// StringQueue.h

using namespace std;
class StringQueue
{
   class Node                                           // nested class of a node of linked list
   {
       public:
           string data;
           Node *next;
      
       public:
       Node(string d)
       {
           data=d;
           next=NULL;
       }
   };
  
   public:
       Node *head=NULL,*tail=NULL;
       int count=0;
      
   public:                                               // constructor to initialise the queue
   StringQueue()
   {
       head=NULL;
       count=0;
   }
      
   public:
   void enqueue(string ch)                               // method that enqueues element into queue
   {
       Node *node=new Node(ch);
       if(head==NULL)
       {
           head=node;
           tail=node;
       }
       else
       {
           tail->next=node;
           tail=node;
       }
       count++;
   }
  
   public:
   string dequeue()                                   // method that dequeues the element from queue using FIFO rule
   {
       if(head==NULL)
           return "";
       Node *node=head;
       head=head->next;
       if(head==NULL)
           tail=NULL;
       count--;
       return node->data;
   }
  
   public:
   string top()                                       // method that returns top most element of queue
   {
       if(head==NULL)
           return "";
       return head->data;
   }
  
   public:
   int size()                                           // method that returns no.of elements in queue
   {
       return count;
   }
  
   public:
   bool isEmpty()                                       // method that says whether the queue is empty or not
   {
       return head==NULL;
   }
};

// driver method

#include <bits/stdc++.h>
#include"StaticStack.h"
#include"DynamicStack.h"
#include"StaticQueue.h"
#include"DynamicQueue.h"
#include"StringQueue.h"
using namespace std;

void printStaticStack(StaticStack stack)                       // prints elements of static int stack
{
   cout << "Static IntStack Elements: ";
   while(!stack.isEmpty())
       cout << stack.pop() << " ";
   cout << endl;
}
void printDynamicStack(DynamicStack stack)                       // prints elements of dynamic int stack
{
   cout << "Dynamic IntStack Elements: ";
   while(!stack.isEmpty())
       cout << stack.pop() << " ";
   cout << endl;
}

void printStaticQueue(StaticQueue queue)                       // prints elements of static int queue
{
   cout << "Static IntQueue Elements: ";
   while(!queue.isEmpty())
       cout << queue.dequeue() << " ";
   cout << endl;
}

void printDynamicQueue(DynamicQueue queue)                       // prints elements of dynamic int queue
{
   cout << "Dynamic IntQueue Elements: ";
   while(!queue.isEmpty())
       cout << queue.dequeue() << " ";
   cout << endl;
}

void printStringQueue(StringQueue queue)                       // prints elements of dynamic string queue
{
   cout << "String Queue Elements: ";
   while(!queue.isEmpty())
       cout << queue.dequeue() << " ";
   cout << endl;
}

int main()                                               // driver method
{
   int n=5;
   StaticStack staticStack;
   for(int i=1;i<=n;i++)
       staticStack.push(i);
   printStaticStack(staticStack);
  
   DynamicStack dynamicstack;
   for(int i=1;i<=n;i++)
       dynamicstack.push(i);
   printDynamicStack(dynamicstack);
  
   StaticQueue staticQueue;
   for(int i=1;i<=n;i++)
       staticQueue.enqueue(i);
   printStaticQueue(staticQueue);
  
   DynamicQueue dynamicQueue;
   for(int i=1;i<=n;i++)
       dynamicQueue.enqueue(i);
   printDynamicQueue(dynamicQueue);
  
   StringQueue strQueue;
   for(int i=1;i<=n;i++)
       strQueue.enqueue("string"+to_string(i));
   printStringQueue(strQueue);
  
    return 0;
}

venereology answered 1 year ago

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