Economic Analysis of the Nanotech Future
nweaver writes "Economic Historian and Berkeley Professor Brad DeLong has created an analysis on his Web Log on the economic implications of Nanotechnology. His observations are based on what previously happened with the Industrial Revolution (and other economic shifts in general) and using this to speculate what Nanotech will do to the economy: who wins (technical/knowledge workers), who loses (manufacturing), and what changes (costs of products)."
If, in the future, copying physical objects is nearly as easy as copying information on a computer, will corporations lobby to pass laws that make it illegal to do so? In other words, will I be arrested one day for making a copy of my friend's Ferrari?
i have worked a bit in the field of nano-decorated surfaces. it is impressive that one can make little nano-sizes arrays of magnetic dots on some substrate . this as so small, that one can view them as single particles which switch homogenously. hence you can study the interactions of little magnetic particles in arrays and do experiments which are very close to theoretical models, such as the Ising model. why should you care? because this nano-patterns seem to be interesting for exchange biased systems. and these seem to be interesting for the recording media industry. but why should you care... this is too geeky anyways. this guy (AKA Prof. Kai Liu) at UC Davis does some interesting research with nanostructures... cool pics and some explanations...
I think that the idea of artificially enhancing ourselves with technology is the right approach, but the BORG technique of implanting high-tech computerized devices seems the wrong approach. Basically, this would open up our very bodies to hackers. By now we should all be aware how very difficult a problem computer security is. Personally I feel that computers and networks can never be made secure, and thus we should stop trying. Just imagine the inevitable result when some black-hat cracker breaks through the encryption protecting your enhanced liver, and proceeds to turn it into 'reverse', whereby it spews toxins into your bloodstream? Compound this with the fact that probably our bodies will be running Microsoft operating systems, and you see why this is the wrong approach.
The correct way to enhance ourselves is the technique outlined by Science Fiction Author Larry Niven. In variou Niven novels and short stories, the characters can live for hundreds of years by means of organ banks. If you lose an arm, use nanotechnology to put on a new arm. Of course, this will require two developments: improved nanotechnology, and the development of organ banks for all body parts. Probably this will lead to the death penalty becoming the standard punishmnent for every minor crime, so as to keep the organ banks full of fresh organs, allowing rich people to live forever at the expense of everybody else.
I hope this happens within my lifetime, as it is a Utopian scenario indeed.
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This is also analogous to the technological revolution, because a much higher number of workers were left unemployed by the increase in productivity than moved to the cities and became factory workers -- witness the enormous social turmoil at the turn of the century. The relatively higher American education levels probably had a much greater impact in the service sector than manufacturing 50-100 years ago. Although level of education has picked up somewhat in the last decade or so (concurrent with America's resurgent dominance in non-military technology), compared to other industrialized countries American education below the college level simply sucks.
The bigotry of the nonbeliever is for me nearly as funny as the bigotry of the believer. - Albert Einstein
I would also suggest folks look at the Nanotechnology timeline Sean Morgan did. Best estimates are this will unfold the next 20 years or so. The nice thing about Morgan's work is that he talks about some of the incremental advancements between now and then.
At first glance I read "Economic Analysis of the Nanotech Failure". I'm not sure if it was trying to say Nanotech is going nowhere, or that the grey goop effect will make pollution look like a spot on one's trousers by comparison.
For my part, I'm not really thrilled by Nanotechnology. It's like being thrilled by quantumn mechanics. Sure it's neat, but unless you are a researcher it's not going to be used in anything you buy, build, or are likely to use. Oooo, it will make already small computer chips smaller. Whoopie. The size of a computing device is currently limited by the size of the battery, power supply, or human interface device.
As far as medical uses, the nanotechnology itself is useless without some way of coordinating the activity of millions of simple robots. That technology isn't nanotechnology. I call the ability to harness millions of independent units "Taonology", and it's first application will be social engineering.
(Checking time-traveler's guide to 2003 to make sure it's been invented.) Scratch that. But when it happens, act surprised.
"Learning is not compulsory... neither is survival."
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The potential benefits of superconductivity are very large. Take New York city, for example. Some months half the electricity they buy is used pushing the other half across hundreds or even thousands of miles of high-tension lines. What would be the financial benefit of saving 50% on your electric bill for the entire city of New York?
Superconductivity is a pipe dream, in that even that absolutely enormous potential savings, multiplied by all the similar situations elsewhere in the world, isn't motivating anyone to build a working superconducting transmission system and save that enormous amount of wasted power. If it's feasable, why hasn't a demand that large produced a result? The theoretical benefits of superconductivity certainly ARE large enough to matter - ergo, the limitation must be practice, not theory.
As a lesser example, Superconducting Magnetic Levitation was supposed to enable a generation of high speed trains that could compete with the aircraft industry. The Japanese just set a train speed record of 585 Km/h. They did it with a non-supercoducting system. Why did they do it the "hard way", if superconducting technology is more than a laboratory curiosity?
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