How to resolve the algorithm Exponentiation order step by step in the Go programming language

Published on 12 May 2024 09:40 PM
#Go

How to resolve the algorithm Exponentiation order step by step in the Go programming language

Table of Contents

Problem Statement

This task will demonstrate the order of exponentiation   (xy)   when there are multiple exponents. (Many programming languages,   especially those with extended─precision integer arithmetic,   usually support one of **, ^, ↑ or some such for exponentiation.)

Show the result of a language's evaluation of multiple exponentiation (either as an integer or floating point). If your language's exponentiation operator is not one of the usual ones, please comment on how to recognize it.

Using whatever operator or syntax your language supports (if any), show the results in three lines (with identification):

If there are other methods (or formats) of multiple exponentiations, show them as well.

Let's start with the solution:

Step by Step solution about How to resolve the algorithm Exponentiation order step by step in the Go programming language

The provided Go program demonstrates the use of the math package to perform exponentiation operations. Here's a detailed explanation of the code:

  1. package main: This line specifies that the code is part of the main program. In Go, each source file represents a package, and the main package contains the entry point of the program.

  2. import "fmt" and import "math": These lines import the fmt and math packages, which are used for formatting output and performing mathematical operations, respectively.

  3. Variable Declarations:

    • var a, b, c float64: Declares three floating-point variables named a, b, and c to store the results of the exponentiation operations.
  4. Exponentiation Operations:

    • a = math.Pow(5, math.Pow(3, 2)): Calculates 5 raised to the power of 3^2, which is 5^9, and stores the result in the variable a.
    • b = math.Pow(math.Pow(5, 3), 2): Calculates (5^3) raised to the power of 2, which is 5^6, and stores the result in the variable b.
    • c = math.Pow(5, math.Pow(3, 2)): Calculates 5 raised to the power of 3^2, which is the same as the operation performed to calculate a.
  5. Output:

    • fmt.Printf("5^3^2 = %.0f\n", a): Prints the value of a in a formatted string, specifying that it should be displayed as a whole number (.0f) and labeled as "5^3^2".
    • fmt.Printf("(5^3)^2 = %.0f\n", b): Similarly, prints the value of b with the label "(5^3)^2".
    • fmt.Printf("5^(3^2) = %.0f\n", c): Prints the value of c with the label "5^(3^2)".

When you run this program, it will calculate and display the results of the three exponentiation operations:

5^3^2   = 1953125
(5^3)^2 = 15625
5^(3^2) = 1953125

As you can see, the results for a and c are identical because they both calculate the same expression: 5 raised to the power of 3^2.

Source code in the go programming language

package main

import "fmt"
import "math"

func main() {
    var a, b, c float64
    a = math.Pow(5, math.Pow(3, 2))
    b = math.Pow(math.Pow(5, 3), 2)
    c = math.Pow(5, math.Pow(3, 2))
    fmt.Printf("5^3^2   = %.0f\n", a)
    fmt.Printf("(5^3)^2 = %.0f\n", b)
    fmt.Printf("5^(3^2) = %.0f\n", c)
}


  

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