Include required header files. Declaration of overload functions for “int”, “float”, “double” and “long”. Definition of “absolute()” function for “int”. Check “n” is lesser than “0”. Assign “-n” to the variable “v” for absolute value. Return “n”. Definition of “absolute()” function for “float”. Check “n” is lesser than “0”. Assign “-n” to the variable “v” for absolute value. Return “n”. Definition of “absolute()” function for “double”. Check “n” is lesser than “0”. Assign “-n” to the variable “v” for absolute value. Return “n”. Definition of “absolute()” function for “long”. Check “n” is lesser than “0”. Assign “-n” to the variable “v” for absolute value. Return “n”. Definition of “main()” function. Declare and initialize the variables for “int”, “float”, “double”, “long”. Call the overload “absolute()” functions and display the result.

Question

Want to see the full answer?

Answer 1

Question

Chapter 4, Problem 8P

Program Plan Intro

Include required header files.

Declaration of overload functions for “int”, “float”, “double” and “long”.

Definition of “absolute()” function for “int”.

Check “n” is lesser than “0”.

Assign “-n” to the variable “v” for absolute value.

Return “n”.

Definition of “absolute()” function for “float”.

Check “n” is lesser than “0”.

Assign “-n” to the variable “v” for absolute value.

Return “n”.

Definition of “absolute()” function for “double”.

Check “n” is lesser than “0”.

Assign “-n” to the variable “v” for absolute value.

Return “n”.

Definition of “absolute()” function for “long”.

Check “n” is lesser than “0”.

Assign “-n” to the variable “v” for absolute value.

Return “n”.

Definition of “main()” function.

Declare and initialize the variables for “int”, “float”, “double”, “long”.

Call the overload “absolute()” functions and display the result.

Expert Solution & Answer

Want to see the full answer?

Check out a sample textbook solution

See solution

Students have asked these similar questions

Specifications: Part-1Part-1: DescriptionIn this part of the lab you will build a single operation ALU. This ALU will implement a bitwise left rotation. Forthis lab assignment you are not allowed to use Digital's Arithmetic components.IF YOU ARE FOUND USING THEM, YOU WILL RECEIVE A ZERO FOR LAB2!The ALU you will be implementing consists of two 4-bit inputs (named inA and inB) and one 4-bit output (named out). Your ALU must rotate the bits in inA by the amount given by inB (i.e. 0-15).Part-1: User InterfaceYou are provided an interface file lab2_part1.dig; start Part-1 from this file.NOTE: You are not permitted to edit the content inside the dotted lines rectangle.Part-1: ExampleIn the figure above, the input values that we have selected to test are inA = {inA_3, inA_2, inA_1, inA_0} = {0, 1, 0,0} and inB = {inB_3, inB_2, inB_1, inB_0} = {0, 0, 1, 0}. Therefore, we must rotate the bus 0100 bitwise left by00102, or 2 in base 10, to get {0, 0, 0, 1}. Please note that a rotation left is…

How can I perform Laplace Transformation when using integration based on this? Where we convert time-based domain to frequency domain

what would be the best way I can explain the bevhoirs of Laplace and Inverse Transofrmation In MATLAB.