EBK STARTING OUT WITH C++
EBK STARTING OUT WITH C++
9th Edition
ISBN: 9780134996066
Author: GADDIS
Publisher: PEARSON CUSTOM PUB.(CONSIGNMENT)
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Chapter 18, Problem 13PC
Program Plan Intro

Rainfall Statistics Modification #2

Program Plan:

“IntList.h”:

  • Include the required specifications into the program.
  • Define a class template named “IntList”.
    • Declare the member variables “value” and “*next” in structure named “ListNode”.
    • Declare the constructor, copy constructor, destructor, and member functions in the class.
  • Declare a class template and define a function named “appendNode()” to insert the node at end of the list.
    • Declare the structure pointer variables “newNode” and “dataPtr” for the structure named “ListNode”.
    • Assign the value “num” to the variable “newNode” and assign null to the variable “newNode”.
    • Using “if…else” condition check whether the list to be empty or not, if the “head” is empty and make a new node into “head” pointer. Otherwise, make a loop find last node in the loop.
    • Assign the value of “dataPtr” into the variable “newNode”.
  • Declare a class template and define a function named “print()” to print the values in the list.
    • Declare the structure pointer “dataPtr” for the structure named “ListNode”.
    • Initialize the variable “dataPtr” with the “head” pointer.
    • Make a loop “while” to display the values of the list.
  • Declare a class template and define a function named “insertNode()” used to insert a value into the list.
    • Declare the structure pointer variables “newNode”, “dataPtr”, and “prev” for the structure named “ListNode”.
    • Make a “newNode” value into the received variable value “num”.
    • Using “if…else” condition to check whether the list is empty or not.
      • If the list is empty then initialize “head” pointer with the value of “newNode” variable.
      • Otherwise, make a “while” loop to test whether the “num” value is less than the list values or not.
      • Use “if…else” condition to initialize the value into list.
  • Declare a class template and define a function named “deleteNode()”to delete a value from the list.
    • Declare the pointer variables “dataPtr”, and “prev” for the structure named “ListNode”.
    • Using “if…else” condition to check whether the “head” value is equal to “num” or not.
      • Initialize the variable “dataPtr” with the value of the variable “head”.
      • Remove the value using “delete” operator and reassign the “head” value into the “dataPtr”.
      • If the “num” value not equal to the “head” value, then define the “while” loop to assign the “dataPtr” into “prev”.
      • Use “if” condition to delete the “prev” pointer.
  • Declare a class template and define a function named “getTotal()” to calculate total value in a list.
    • Define a variable named “total” and initialize it to “0” in type of template.
    • Define a pointer variable “nodePtr” for the structure “ListNode” and initialize it to be “NULL”.
    • Assign the value of “head” pointer into “nodePtr”.
    • Define a “while” loop to calculate “total” value of the list.
    • Return a value of “total” to the called function.
  • Declare a class template and define a function named “numNodes()” to find the number of values that are presented in the list.
    • Declare a variable named “count” in type of “integer”.
    • Define a pointer variable “nodePtr” and initialize it to be “NULL”.
    • Assign a pointer variable “head” to the “nodePtr”.
    • Define a “while” loop to traverse and count the number of elements in the list.
  • Declare a class template and define a function named “getAverage()”to find an average value of elements that are presented in list.
  • Declare a class template and define a function named “getLargest()”to find largest element in the list.
    • Declare a template variable “largest” and pointer variable “nodePtr” for the structure.
    • Using “if” condition, assign the value of “head” into “largest” variable.
    • Using “while” loop, traverse the list until list will be empty.
      • Using “if” condition, check whether the value of “nodePtr” is greater than the value of “largest” or not.
      • Assign address of “nodePtr” into “nodePtr”.
    • Return a value of “largest” variable to the called function.
  • Declare a class template and define a function named “getSmallest()” to find smallest element in the list.
    • Declare a template variable “smallest” and pointer variable “nodePtr” for the structure.
    • Using “if” condition, assign the value of “head” into “smallest” variable.
    • Using “while” loop, traverse the list until list will be empty.
      • Using “if” condition, check the value of “nodePtr” is smaller than the value of “smallest”.
      • Assign address of “nodePtr” into “nodePtr”.
    • Return a value of “smallest” variable to the called function.
  • Declare a class template and define a function named “getSmallestPosition()” to find the position of smallest value in the list.
    • Declare a template variable “smallest” and pointer variable “nodePtr” for the structure.
    • Using “while” loop traverses the list until the list will be empty.
      • Using “if” condition, find the position of “smallest” value in the list.
    • Return the value of “position” to the called function.
  • Declare a class template and define a function named “getLargestPosition()” to find the position of largest value in the list.
    • Declare a template variable “largest” and pointer variable “nodePtr” for the structure.
    • Using “while” loop traverses the list until the list will be empty.
      • Using “if” condition, find the position of “largest” value in the list.
    • Return the value of “position” to the called function.
  • Define the destructor to destroy the values in the list.
    • Declare the structure pointer variables “dataPtr”, and “nextNode” for the structure named “ListNode”.
    • Initialize the “head” value into the “dataPtr”.
    • Define a “while” loop to make the links of node into “nextNode” and remove the node using “delete” operator.
  • Declare a class template and define a function named “storeToFile()” to save the list values into file.
    • Declare a pointer variable “nodePtr” for a structure “ListNode” and assign it’s to be null.
    • Make a call to create a file object “outFile()” and initialize the value of variable “head” pointer into “nodePtr”.
    • Using “while” loop save the values of list into file and assign the next node into “nodePtr”.
    • Close the file using “close()” method.
  • Declare a class template and define a function named “getFromFile()” to get the data from file into list.
    • Declare a pointer variable “nodePtr” for a structure “ListNode” and assign it’s to be null.
    • Declare a template variable “newValue” and create an object for file.
    • Using “while” loop, get the values from file into list.
    • Close the file using “close()” method.

Program #1 “Main.cpp”:

  • Include the required header files into the program.
  • Declare a variable “n” in type of integer.
  • Read the value of “n” from user and using “while” loop to validate the data entered by user.
  • Declare an object named “rainfall” for the class “IntList”.
  • Using “for” loop, read an input for every month from user.
    • Append the value entered from user into the list.
  • Make a call to the function “storeToFile()” to write the list values into file.

Program #2 “Main.cpp”:

  • Include the required header files into the program.
  • Declare an object named “rainfall” for the class “IntList”.
  • Make a call to the function “getFromFile()” to read a file into list using “rainfall” object.
  • Make a call to “getTotal()”, “getAverage()”, “getLargest()”, “getSmallest()”, “getLargestPosition()”, and “getSmallestPosition()” function and display the values on the screen.

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