Recursive Power Method Program Plan: • Global variable declaration: ○ Initialize the variable “minimum” as “1”. ○ Initialize the variable “maximum” as “100”. • Define the “main()” function: ○ Initialize the variable “number” as “0”. ○ Initialize the variable “exp” as “0”. ○ Get the input from the user and store it to the variable “number”. ○ Check the value of “exp” ■ If it is less than “minimum” or greater than “maximum”, then get the exponent “exp” from the user. ○ Call the function “recursivePower()” and pass the two arguments “number” and “exp”. ○ Display the result on the output screen. • Define the “recursivePower(x, y)” function: ○ Check the value of “y”. ■ If it is equal to “0”, then returns is “1”. ■ Otherwise, call the function “recursivePower()” recursively along with the arguments “x” and the decremented value of “y”. ■ Display the result on the output screen. • Call the “main()” function.

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Chapter 12, Problem 7PE

Program Plan Intro

Recursive Power Method

Program Plan:

• Global variable declaration:

○ Initialize the variable “minimum” as “1”.

○ Initialize the variable “maximum” as “100”.

• Define the “main()” function:

○ Initialize the variable “number” as “0”.

○ Initialize the variable “exp” as “0”.

○ Get the input from the user and store it to the variable “number”.

○ Check the value of “exp”

■ If it is less than “minimum” or greater than “maximum”, then get the exponent “exp” from the user.

○ Call the function “recursivePower()” and pass the two arguments “number” and “exp”.

○ Display the result on the output screen.

• Define the “recursivePower(x, y)” function:

○ Check the value of “y”.

■ If it is equal to “0”, then returns is “1”.

■ Otherwise, call the function “recursivePower()” recursively along with the arguments “x” and the decremented value of “y”.

■ Display the result on the output screen.

• Call the “main()” function.

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