Moore’s law

He knew about Moore's law, of course, which states that the number of transistors you can put on a microchip doubles about every two years.

All these approaches mean that Moore's law should be able to chunter along for a few more years, at least.

"Not anymore, " Wang said, and explained what must be something like the Moore's Law of electric bicycles.

"If anyone is going to push Moore's law to the furthest, TSMC will be there, " he said.

Despite many periodic cries that the pace of progress predicted by Moore's Law simply could not be maintained, it has so far held true.

For information technology, Moore's Law makes it relatively easy to keep the costs of connection low.

The original Moore's Law is usually summarised thus: the number of transistors on a chip doubles every 18 months.

Some of them, perhaps most, are also slow memory hogs -- though 25 years of Moore's law have made that particular problem less noticeable.

(The notion of Moore's law refers to the fact that the performance of chips is roughly doubled every two years).

At first I thought of choosing one of those USB memory sticks as a symbol of the effect of Moore's Law on our lives.

You know, Moore's law tells us about transistors on a chip.

The theory, which would eventually come to be known as Moore's Law, was later revised and refined.

Parallel computation has recently become necessary to take full advantage of the gains allowed by Moore's law.

Moore's Law suggests that it will occur faster this time around. The forces that shaped globalization will demand it.

A breakthrough could help computer chips keep up to speed with what computer experts call Moore's Law.

But in a few more years, as Moore's Law continues to expand our computing capabilities, we may well see topic maps come into their own.

Simple: Moore's law, which states that computing power will double every two years, is really no longer true.

Moore's law, which holds that the processing power of a single computer chip roughly doubles every 18 months, applies to sensors, too.

This chapter introduces the Law of Disruption and its key drivers, Moore's Law and Metcalfe's Law.

Moore's law has not been repealed, but more people are taking the dividend it provides in cash, rather than processor cycles.

Three related principles----Moore's Law, Metcalfe's Law, and the Law of disruption----explain the power and promise of digital life.

The attack is computationally intensive, but recent advances and Moore's Law have made the computation of a colliding certificate feasible.

When it comes to embedded applications, though, Moore's Law is a bit more complicated.

That'll be the end of Moore's Law, but it won't be the end of the exponential growth of computing, because chips are flat.

Since the 90's, along with the commercialization of the Internet to the speed of Moore's Law-like expansion of the explosion.

We haven't reached any limits in terms of Moore's law or the other elements in the system.

In contrast, planar technology kept steadily improving, enabling amazing advances at a rate famously commemorated by Moore's Law.

Such a gate length would keep Moore's law rolling for several years.

Forty years ago, Caltech professor Carver Mead identified the corollary to Moore's law of ever-increasing computing power.

As Moore's Law continues its relentless journey to into the realm of smaller, cheaper, and faster, new applications arrive more quickly.

The application of Moore's Law boils down to one remarkable fact: computers continue to get faster, cheaper, and smaller.

Yet the capacity to process data has been driven by Moore's Law, rising at least 30 percent per year.

I compare Moore's Law to driving down the road on a foggy night, how far can you see?

doubled the number of jobs per node, benefitting from increased CPU power due to Moore's law.

Perhaps the most compelling example of Moore's Law in action is not in business at all, but in the world of toys.

In it, he tore apart the misplaced belief that Moore's Law would continue to unleash higher and higher CPU clock speeds.

Dr Grove still believes in Moore's law (with the caveat that it will get ever pricier for chipmakers to uphold) but he has a grave concern.

The ever more sophisticated equipment required to make semiconductors has been getting dearer with every iteration of Moore's Law.

The flash memory industry has used a number of approaches to keep up with Moore's law without having a new technology.

Significant AI improvement has thus had to await the extra processing power predicted by Moore's Law.

We also believed that objects were the best way to model the world and that Moore's Law would rule exponentially forever.

Basically, "Moore's law" plus software inflation mean today's computer system will not last.

From 1990 to 2020, Moore's Law progress alone will increase the processing power of a single server by a factor of 1 million.

Moore's law has yielded fast, smart computers, with pretty graphics and worldwide connections.

Computers memory, data storage, and data communication have their own rough approximations of Moore's Law.

Computer memory, data storage, and data communications have their own rough approximations of Moore's Law.

We'll have those ready well before Moore's Law runs out of steam.

Moore's Law states that the number of transistors on a chip doubles every 18 months.

Even in the early days, he says, Intel's progress was out-performing Moore's law.

Moore's law suggests that the size of transistors (and also their cost) halves every 18 months or so.

And because we've been predicting the end of Moore's Law for quite a long time -- the first prediction said 2002, until now it says 2022.

Since then, technology development has exploded, far outpacing Moore's Law.

One major change in chip design that Moore's Law enabled and consumers felt came several years ago.

This decline recalls Moore's law, which, when promulgated in 1965, predicted the exponential rise of computing power.

Moore's Law continues at the pace of 2x every two years. Bandwidth improves 3x every two years.

According to the Moore's Law, the number of transistors that can be integrated on a single chip will increase by four times every 3 years.

Named after him, Moore's Law describes an important trend in the history of computer hardware.

PC-based instruments use Moore's Law, doubling performance every 18 months by improving processor speed.

Progress in many areas of ICT follows Moore's law, they write, which suggests that circuit performance should double every 1-2 years.

The real risk is what happens if Moore's Law fails, said James Tour, a nanoscientist at Rice University .

Such devices may relegate Moore's Law to secondary status.

Computer hardware has fulfilled Moore's Law for 40 years and may continue to do so.

Five years is a factor of ten in Moore's Law, meaning that computers will be capable of far more by that time than they are today.

The reason that mobile devices have not evolved as quickly as we'd like is that Moore's Law, in many ways, doesn't help as much here.

The arc of Moore's law brings the singularity ever closer.

Moore's law tells us about transistors on a chip.

Together, Moore's Law and Metcalfe's Law have created a new environment----the world of digital life.

This obviates Moore's Law, which says that CPU speeds will double every 18 months.

Computing has, famously, increased in potency according to Moore's law.

Moore's law made computing cheap, so cheap we can weigh the life of an individual insect and decide thumbs-up or thumbs-down.

Moore's Law doesn't really apply to mobile devices in the same way as to desktop and server applications.

According to Moore's Law, transistor density will double every 18 months while power technology need 5 years to reach the same speed.

How Far can Moore's Law Keep Effective after 45nm?

Because we refresh phones more often, they can keep pace with Moore's Law easier than cars can.

When will Moore's Law stop?

Thanks to Moore's Law, PS3 is thirty times more powerful than PS2.

How Far Will Moore's Law go?

According to the Moore's law, it becomes more and more complex to design high-speed and high-density Printed Circuit Board (PCB).

This is not Moore's Law.

Introducing Moore's Law Into Wireless Communication Industry

The Ideology Potential and Limitation of Moore's Law

The Moore's Law and Semiconductor Equipment

Expanding Moore's Law with Convergence

Moore's Law: Faster, Cheaper, Smaller

Surely we could imagine faster processors, but Moore's law told us that computers would continue to get faster, and they have. 1

And it's only because of Moore's law that they're now moving up into the more demanding tasks