DARPA's new Electronics Resurgence Initiative will look at what comes after
Moore's Law runs its course.
Using
Moore's Law as a starting point, let's assume that the number of transistors on an integrated circuit doubles every 18 months as a lower bound and every three years as an upper bound.
So overall, perpetuating
Moore's Law in the foreseeable future will require disruptive technologies which take the electronics industry beyond its silicon comfort zone.
"To me, the end of
Moore's Law is certain," Armstrong said.
Today, it's no secret
Moore's Law is becoming more and more difficult to accomplish.
Until now,
Moore's Law had ensured that the performance of computer chips doubled every 18 months.
The bulk of the evidence suggests information technology has delivered both technically and economically: it has achieved the promise of
Moore's Law in both its narrowest sense of transistor scaling and its broadest effect of widespread economic uplift.
Here, Jonathan Wilkins, marketing director of industrial automation components supplier European Automation, analyses the rate of technological progress and discusses the validity of
Moore's Law.
Expected growth is supported by the wider adoption of Cu pillar technology, as well as
Moore's law pushing beyond the 28nm node and "More than Moore" evolution in DDR and 3D ICs, according to the research firm.
BOHR:
Moore's Law is a driving force of technological, economic and social change and is a foundational force in modern life.
Our overall strategy is to build on core assets like the PC and move into new, adjacent markets such as the Internet of Things (IoT), all the while continuing our leadership through the power of
Moore's Law.
What's next Historically, improvements in energy efficiency have largely come as a byproduct of
Moore's Law -- the doubling of the number of transistors on a chip about every two years through ever smaller circuitry.
