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Computer Organization and Architecture
Logic Gates
Circuits to Truth Tables
Circuits to Expressions
Expressions to Circuits
Finding SOP from K-Map
Finding POS from K-Map
Finding SOP from K-Map having Don't Care
Half Adders
Full Adders
Flip Flop
Integrated Circuits
Decoders
Multiplexers
Registers
Counters
RAM
ROM
Number Systems
Complements
Number Representations
Binary Addition and Subtraction
Gray Codes
Error Detection Codes
Register Transfer Language
Bus and Memory Transfers
Arithmetic Micro-operations
Logical Micro-operations
Shift Micro-operations
Basic Computer Organization
Timing and Control
Instruction Cycle
Instruction Types
Interrupt Cycle
Complete Computer Description
General Register Organization
Stack Organization
Evaluation of Arithmetic Operations
Address Modes
Instruction Formats
RISC and CISC Architectures
Parallel Processing
Multiplication Algorithms
Logic Gates
Circuits to Truth Tables
Circuits to Expressions
Expressions to Circuits
Finding SOP from K-Map
Finding POS from K-Map
Finding SOP from K-Map having Don't Care
Half Adders
Full Adders
Flip Flop
Integrated Circuits
Decoders
Multiplexers
Registers
Counters
RAM
ROM
Number Systems
Complements
Number Representations
Binary Addition and Subtraction
Gray Codes
Error Detection Codes
Register Transfer Language
Bus and Memory Transfers
Arithmetic Micro-operations
Logical Micro-operations
Shift Micro-operations
Basic Computer Organization
Timing and Control
Instruction Cycle
Instruction Types
Interrupt Cycle
Complete Computer Description
General Register Organization
Stack Organization
Evaluation of Arithmetic Operations
Address Modes
Instruction Formats
RISC and CISC Architectures
Parallel Processing
Multiplication Algorithms
Full Adder
A Full Adder is a digital circuit that not only produces a CARRY; it can even utilize that. Thus a Full adder can be better defined as a digital circuit that inputs three binary bits and adds them to produce a SUM and a CARRY. Among of the three input bits; first is the ADDEND, second is the AUGEND and third is the INPUT CARRY.
A Full Adder can be constructed by connecting two Half Adders serially. Consider the following Block Diagram:
Circuit of a Full Adder:
Truth Table of a Full Adder:
