Design and performance analysis of 4-bit Nano-Processor design for low area, low power and minimum delay using 32nm CMOS technology.

Project Code :TVMABE229

Objective

The major concentration is on the proposed 4-bit Nano processor using CMOS 32nm technology by using the Tanner EDA software tool.

Abstract

Despite progress in VLSI chip technologies, such as scaling transistor and device parameters, managing current flow between the source and drain terminals remains a challenge. To tackle this, transistors have been integrated into VLSI chips to provide better current control. This article explores the issues faced in CMOS technology and focuses on the development of a 4-bit Nano CPU using 32nm technology with the Tanner software tool.

The proposed Nano processor starts with a 4-bit ALU that includes all necessary universal gates, featuring a high-speed adder, multiplier, and multiplexer. Key components like the Carry Save Adder (CSA) and the multiplier are designed for optimization to enhance power efficiency and minimize area usage. Designed for reduction of power and delay by using Transmission technique.

The final step in this design process involves creating the Graphic Data System (GDS-II) through mask layout design. This design features logical gates such as AND, OR, XOR, NOT, and NAND, as well as SRAM, Encoder, Decoder, and ANN, all optimized for reduced power consumption. The main objective in this phase is to enhance both power efficiency and area utilization.

 

Keywords: CMOS Technology, CMOS, Gated Techniques, ANN, CSA, Nano Processors

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

Block Diagram

Specifications


Software Requirements:
• Tool: Tanner EDA 

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

  • 1.Understanding the fundamentals of nano-scale CMOS technology and its impact on processor design.
  • 2.Ability to design a simple 4-bit processor architecture with emphasis on compact area and optimized performance.
  • 3.Practical skills in using Tanner EDA (and supporting tools) for schematic entry, simulation, and layout implementation.
  • 4.Knowledge of low-power design techniques applicable to processor design in sub-45 nm technologies.
  • 5.Experience in analyzing processor performance parameters such as area, delay, and power consumption.
  • 6.Ability to carry out trade-off analysis between speed, area, and power in processor design.
  • 7.Exposure to digital circuit optimization techniques for achieving minimum critical path delay.
  • 8.Understanding of arithmetic and logic unit (ALU) design and its integration into a nano-processor.
  • 9.Competence in performing post-layout simulation and evaluating the impact of parasitics.
  • 10.Preparedness for applying nano-processor design concepts in low-power IoT, embedded systems, and custom ASIC applications.
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