Why have we made limited progress in AI? Because we haven’t developed sophisticated models of thinking, we need better programming languages and architectures, and we haven’t focused on common sense problems that every normal child can solve.… read more
August 11, 2003 by Ray Kurzweil
Ray Kurzweil presented the 2003 Ray Kurzweil Award of Technology in Music to Tod Machover at the Fourth Annual Telluride Tech Festival (August 8-10, 2003). The award was in recognition of Machover’s pioneering research at the MIT Media Lab in music technology, such as “hyperinstruments,” as well as his achievements as composer and performer.… read more
In “The Singularity Is Always Near,” an essay in The Technium, an online “book in progress,” author Kevin Kelly critiques arguments on exponential growth made in Ray Kurzweil’s book, The Singularity Is Near. Kurzweil responds.
Allow me to clarify the metaphor implied by the term “singularity.” The metaphor implicit in the term “singularity” as applied to future human history is not to a point of infinity, but rather to the event horizon surrounding a black hole. Densities are not infinite at the event horizon but merely large enough such that it is difficult to see past the event horizon from outside.
I say difficult rather than impossible because the Hawking radiation emitted from the event horizon is likely to be quantum entangled with events inside the black hole, so there may be ways of retrieving the information. This was the concession made recently by Hawking. However, without getting into the details of this controversy, it is fair to say that seeing past the event horizon is difficult (impossible from a classical physics perspective) because the gravity of the black hole is strong enough to prevent classical information from inside the black hole getting out.
Beating Moore’s 2nd Law: Advances in Nanoengineering and New Approaches to Computing at the 2002 Annual Meeting of the AAAS
February 21, 2002 by Lucas Hendrich, KurzweilAI.net
At the 2002 AAAS Nanotechnology Seminar, leading nanotechnologists presented the building blocks that may overturn current manufacturing processes on a collision course with Moore’s Law.… read more
Nobel prize winner physicist Richard Feynman played a critical role in developing the first parallel-processing computer and finding innovative uses for it in numerical computing and building neural networks as well as physical simulation with cellular-automata (such as turbulent fluid flow), working with Stephen Wolfram.… read more
Nonbiological intelligence is multiplying by over 1,000 per decade. Once we can achieve the software of intelligence, which we will achieve through reverse-engineering the human brain, non-biological intelligence will soar past biological intelligence. By the 2040s, nonbiological intelligence will be a billion times more powerful than the 10^26 computations per second that all biological humanity represents.… read more