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exp-02-implementation-of-half-adder-and-full-adder-circuit's Introduction

Exp-03-Implementation-of-Half-Adder-and-Full-Adder-circuit

Implementation-of-Half-Adder-and-Full-Adder-circuit

AIM:

To design a half adder and full adder circuit and verify its truth table in Quartus using Verilog programming.

Equipments Required:

Hardware – PCs, Cyclone II , USB flasher Software – Quartus prime Theory Adders are digital circuits that carry out addition of numbers.

Half Adder

Half adder is a combinational circuit that performs simple addition of two binary numbers. The input variables designate the augend and addend bits; the output variables produce the sum and carry. It is necessary to specify two output variables because the result may consist of two binary digits.

Sum = A’B+AB’ =A ⊕ B Carry = AB

Full Adder

Full adder is a digital circuit used to calculate the sum of three binary bits. It consists of three inputs and two outputs. Two of the input variables, denoted by A and B, represent the two significant bits to be added. The third input, Cin, represents the carry from the previous lower significant position. Two outputs are necessary because the arithmetic sum of three binary digits ranges in value from 0 to 3, and binary 2 or 3 needs two digits. The two outputs are sum and carry.

Sum =A’B’Cin + A’BCin’ + ABCin + AB’Cin’ = A ⊕ B ⊕ Cin Carry = AB + ACin + BCin

image

Figure -01 HALF ADDER

image

Figure -02 FULL ADDER

Procedure

Connect the supply (+5V) to the circuit Switch ON the main switch If the output is 1, then the led glows.

Program:

# Program to design a half adder and full adder circuit and verify its truth table in quartus using Verilog programming.
# Developed by: Mukesh V 
# RegisterNumber: 212222230086
HALF ADDER

module Adder(a,b,sum,carry);
input a,b;
output sum,carry;
xor(sum,a,b);
and(carry,a,b);
endmodule 
FULL ADDER

module FullAdder(a,b,c,sum,carry);
input a,b,c;
output sum,carry;
assign sum = ((a^b)^c);
assign carry = ((a&b)|(b&c)|(c&a));
endmodule

Output:

HALF ADDER:

LOGIC SYMBOL

ha1

RTL

ha2

TIMING DIAGRAM

ha3

TRUTH TABLE

ha4

FULL ADDER:

LOGIC SYMBOL

fa1

RTL

fa2

TIMING DIAGRAM

fa3

TRUTH TABLE

fa4

Result:

Thus, a half adder and full adder circuit is designed to verify its truth table in Quartus using Verilog programming.

exp-02-implementation-of-half-adder-and-full-adder-circuit's People

Contributors

vasanthkumarch avatar mukeshvelmurugan avatar

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