Re: The Singularity
They went into government/defense, became bankster techno-minions, are unemployed, or are working on social networking.
I am not being sarcastic.
Some are working in solar, because of the overlap in technology.
I'd suggest reading some history before making a fatuous statement like this.
The vacuum tube computers never went over 100,000 vacuum tubes; ENIAC had 18,000.
The number of people employed making vacuum tubes for ENIAC? A mere handful.
IBM grew an entire industry out of transistor-based mainframes starting with the System 360. In 1955, IBM had 41000 employees - by 1968 it had 241,000.
There has not been a period ever where the electronics industry has shrunk; this is now happening.
Kurzweil is an entertainer with communications technology experience and skills; he uses the output of the electronics industry but has never actually been involved in semiconductor or computer development.
Paul Allen at least was involved in the software interface to the hardware.
It is amazing how the technotopians take their direction from entertainers and software dudes.
Those of us who actually work with the hardware rarely, if ever, share these beliefs.
These machines can't make computer chips.
As I noted earlier in this thread: the entire 1st world plus the rich portions of the rest of the world can support only 230 or so semiconductor fabs at present. The best analogy is the Jetson's rocket car: we can actually build such a thing today. But the entire world could probably only support a few thousand - they would be so expensive to build, maintain, and operate.
The cost of building the next generation of process technology is such that Moore's law is already broken.
In the '80s, '90s, and even early 2000s, a new process was 35% cheaper, 35% faster, and 50% more productive, and a new generation would come out ever 2-3 years.
Today a cutting edge process is 15% more expensive, 15% faster, and 10% more productive with a new generation in 5 to 7 years.
Given this trend - and this ignores major unsolved problems like quantum tunneling* - how exactly will the trend accelerate?
* Quantum tunneling: the phenomenon in which any given particle can just disappear, and reappear somewhere else. It is extremely rare. Modern transistors have as little as 10 electrons constituting a transition; 1 such electron disappearing causes a failure. Now pack 100 million transistors onto a single chip and flip each transistor 2 billion times a second - you can see that a quantum tunneling event is a probability, not a possibility. And since you can't even predict where it will happen, all you can do is try to build in redundancy. In contrast a Year 2000 transistor had hundreds, even thousands of electrons passing with each transition. Chips were 1 million transistors and clocked at one or two million of times a second.
Originally posted by Ghent12
I am not being sarcastic.
Some are working in solar, because of the overlap in technology.
Originally posted by acreativename
The vacuum tube computers never went over 100,000 vacuum tubes; ENIAC had 18,000.
The number of people employed making vacuum tubes for ENIAC? A mere handful.
IBM grew an entire industry out of transistor-based mainframes starting with the System 360. In 1955, IBM had 41000 employees - by 1968 it had 241,000.
There has not been a period ever where the electronics industry has shrunk; this is now happening.
Kurzweil is an entertainer with communications technology experience and skills; he uses the output of the electronics industry but has never actually been involved in semiconductor or computer development.
Paul Allen at least was involved in the software interface to the hardware.
Originally posted by GEC
Those of us who actually work with the hardware rarely, if ever, share these beliefs.
Originally posted by mesyn191
As I noted earlier in this thread: the entire 1st world plus the rich portions of the rest of the world can support only 230 or so semiconductor fabs at present. The best analogy is the Jetson's rocket car: we can actually build such a thing today. But the entire world could probably only support a few thousand - they would be so expensive to build, maintain, and operate.
The cost of building the next generation of process technology is such that Moore's law is already broken.
In the '80s, '90s, and even early 2000s, a new process was 35% cheaper, 35% faster, and 50% more productive, and a new generation would come out ever 2-3 years.
Today a cutting edge process is 15% more expensive, 15% faster, and 10% more productive with a new generation in 5 to 7 years.
Given this trend - and this ignores major unsolved problems like quantum tunneling* - how exactly will the trend accelerate?
* Quantum tunneling: the phenomenon in which any given particle can just disappear, and reappear somewhere else. It is extremely rare. Modern transistors have as little as 10 electrons constituting a transition; 1 such electron disappearing causes a failure. Now pack 100 million transistors onto a single chip and flip each transistor 2 billion times a second - you can see that a quantum tunneling event is a probability, not a possibility. And since you can't even predict where it will happen, all you can do is try to build in redundancy. In contrast a Year 2000 transistor had hundreds, even thousands of electrons passing with each transition. Chips were 1 million transistors and clocked at one or two million of times a second.
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