Moore's law, Death of Moore's law, What after Moore's law?

Moore's law, Death of Moore's law, What after Moore's law?

There is no introduction or explanation needed for the famous Moore's law, still, for the sake of this post I am writing it. Gordon Earle Moore an American engineer, and the co-founder of Intel corporation created a law in 1965 which is "The number of transistors per silicon chip doubles every year", which holds true not until recent times, the semiconductor manufacturing industry is facing extreme challenges in designing smaller transistors, as many factors challenge a transistor's effective operation like subthreshold leakage, unable to withstand higher temperatures, cost of R&D and fabrication etc. This reminds us of another prediction made by Arthur Rock which was also made in the 1960's which is described as Moore's second law. According to Moore's second law "The cost of a semiconductor chip fabrication plant doubles every 4 years". Both the laws were only predictions made by the observations made by the understanding the magnificence of ICs.

Researchers, scientists and engineers are having proven reports that in the recent years that Moore's law will not hold true henceforth. So now we are coming to the next question. What next?

There are many recent inventions which will outburst the performance of digital machines, like Neuromorphic computing. It is basically a process of mimicking the brain cell actions into ICs, as we all know the most astonishing engine in the world is a "huma brain". Imagine if we are able to create electronic brains!

When analog devices were ruling the world and when the world was not introduced to the concept of "Digital", we had no idea that "Digital" will take over "Analog". It's time for us to wait and watch what Neuromorphic computing will provide to the world and how it is going to create a whole new evolution by itself.

Thanks for reading and please share your comments

#vlsidesign #moore #neuromorphic

Prashant Panmand

ASIC Digital Design Engr Sr II at Synopsys Inc

2 年

Indeed ! Limitations on precision at quantum level creating challenges at computational capabilities. Moore’s law will be absolute by 2 decades or sooner. Thanks Janet Christina for wonderful article.

Manasa N

Passionate for Vlsi

2 年

Thank you for such a useful information

Prakruthi K T

Physical Design Engineer at Agasthya App Labs Private Limited

2 年

This is really informative ?

要查看或添加评论,请登录

Janet .的更多文章

  • VLSID 2025

    VLSID 2025

    #VLSID2025 #Ignitarium #AI #Silicon #IBM #TATAELECTRONICS #ESD #DFT #VLSID #VLSIDCon #EmbeddedSystems #Semiconductors…

    2 条评论
  • 2024 >> 2025!!!

    2024 >> 2025!!!

    This New Year brings with it a whirlwind of emotions for everyone! In 2025, For a few, it’s about a fresh start. For…

  • What is the use of "clock sense" in timing?

    What is the use of "clock sense" in timing?

    It is truly amazing when we observe how a small addition made in a tool command makes a domino impact of the entire…

    1 条评论
  • Synthesis – Errors and Fixes ?????

    Synthesis – Errors and Fixes ?????

    1. Could Not Find an HDL Design ?? Error: CDFG-210.

    1 条评论
  • Use of latches in VLSI Physical design

    Use of latches in VLSI Physical design

    Characteristics of latches: Latches change their output instantly as the input changes and holds or latches the output…

  • Transition from MOSFETs to FINFETs.

    Transition from MOSFETs to FINFETs.

    Before analyzing the transition from MOSFET to FINFET, let's glance the history of MOSFET. The basic principle of a…

  • Decoding common path pessimism removal

    Decoding common path pessimism removal

    What is common path? - The clock path that is commonly shared by the launch path and capture path. This path starts…

    3 条评论
  • Sanity checks

    Sanity checks

    I am sharing the 3 important sanity check commands. check_design Usage: Checks for all the pre-requisites for the block…

  • Process of "Timing modelling for standard cells"

    Process of "Timing modelling for standard cells"

    Everything starts with a cell. For the people of electronics, it is "CMOS cells".

  • Quantum - The Superposition of possibility and impossibility

    Quantum - The Superposition of possibility and impossibility

    It all started when Neils Bohr and Werner Heisenberg made intriguing yet confusing agreements on quantum mechanics…

社区洞察

其他会员也浏览了