Design And Implementation Of Power Efficient Multiplier Using Reversible Logic

Project Code :TVMAFE705

Objective

Reduce Power Dissipation • Use reversible logic to lower energy loss, since reversible gates ideally avoid bit erasure and thus reduce heat / power dissipation. • Target ultra-low power, which is especially relevant in future VLSI, quantum, or nanocomputing contexts.

Abstract

In current VLSI Technology, Power Consumption has emerged as a very significant factor to consideration. The primary goal of this project is to design various bits of multiplier using reversible logic circuit with low Power Consumption. Here Power consumption is based on minimum Quantum cost. Lower the Quantum cost lower the Power Consumption. When designing reversible logic algorithms for multipliers, power consumption can be greatly optimized compared to conventional logic-based circuits. Reversible logic is defined by having an equal number of output lines and input lines. Reversible logic includes the use of reversible gates. There are several reversible logic gates, including the Fredkin Gate, Feynman Gate, Double Feynman Gate, Peres Gate, and Toffoli Gate. A comparative study is also given, considering garbage outputs, quantum cost, and the number of gates. Reversible logic is applied in embedded systems where power efficiency is important. In this Project, various bits of multipliers are designed using reversible logic. These circuits are optimized to have minimum quantum cost and produce the least number of garbage outputs

NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

Block Diagram

Specifications

Specifications:

Software Requirements:

·         Xilinx ISE14.7 Suite/Vivado2018.3 Tool.

·         HDL: Verilog.

Hardware Requirements:

·         Microsoft® Windows XP.

·         Intel® Pentium® 4 processor or Pentium 4 equivalent with SSE support.

·         512 MB RAM.

100 MB of available disk space

Learning Outcomes

Learning Outcomes:

•      Basics of Digital Electronics

•      FPGA design Flow

•      Introduction to Verilog Coding

•      Different modeling styles in Verilog

o   Data Flow modeling

o   Structural modeling

o   Behavioral modeling

o   Mixed level modeling

•      Drawbacks of existing methods

•      Applications in real time

•      Xilinx ISE 14.7/Xilinx Vivado for design and simulation

•      Generation of Netlist

•      Solution providing for real time problems

•      Project Development Skills:

o   Problem Analysis Skills

o   Problem Solving Skills

o   Logical Skills

o   Designing Skills

o   Testing Skills.

o   Debugging Skills.

o   Presentation Skills.

o   Thesis Writing Skills

Demo Video

mail-banner
call-banner
contact-banner
Request Video