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	<title>Comments on: Whither Manufacturing?</title>
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	<link>http://www.overcomingbias.com/2008/12/whither-manufac.html</link>
	<description>Overcoming Bias is economist Robin Hanson’s blog, on honesty, signaling, disagreement, forecasting, and the far future.</description>
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		<title>By: frelkins</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391403</link>
		<dc:creator>frelkins</dc:creator>
		<pubDate>Wed, 03 Dec 2008 16:13:16 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391403</guid>
		<description>@Vassar

&quot;&lt;em&gt;fairly easy (e.g. a large but routine engineering project) with 10^22 FLOPS&lt;/em&gt;&quot;

Just to ground this discussion a bit, I&#039;m sure everyone knows that currently only IBM&#039;s Roadrunner has been clocked for the full petaflop (10^15), altho&#039; its Blue Gene should &quot;soon&quot; be upgraded/upgradeable to run at 3 petaflops. (I might also watch Yoyotech, your friendly neighborhood supercomputer geeks, for this in the relatively near future, say less than 5 years.)

The full yottaflop (10^24) despite what seems like impossible situation - larger than an office building! would take more power than the entire NYC FiDi! or whatever - may however be practically conceivable, if those folks at Evolved Machines are really onto something.
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		<content:encoded><![CDATA[<p>@Vassar</p>
<p>&#8220;<em>fairly easy (e.g. a large but routine engineering project) with 10^22 FLOPS</em>&#8221;</p>
<p>Just to ground this discussion a bit, I&#8217;m sure everyone knows that currently only IBM&#8217;s Roadrunner has been clocked for the full petaflop (10^15), altho&#8217; its Blue Gene should &#8220;soon&#8221; be upgraded/upgradeable to run at 3 petaflops. (I might also watch Yoyotech, your friendly neighborhood supercomputer geeks, for this in the relatively near future, say less than 5 years.)</p>
<p>The full yottaflop (10^24) despite what seems like impossible situation &#8211; larger than an office building! would take more power than the entire NYC FiDi! or whatever &#8211; may however be practically conceivable, if those folks at Evolved Machines are really onto something.</p>
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		<title>By: James Hatfield</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391402</link>
		<dc:creator>James Hatfield</dc:creator>
		<pubDate>Wed, 03 Dec 2008 14:43:59 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391402</guid>
		<description>Large Scale manufacturers will always have an advantage with commodity products. What&#039;s not clear about the future is what Large Scale means. Currently it means centralized manufacturing but in the future we may see more advanced distributed manufacturing.

Yes, we already distribute our manufacturing, parts are made in one location and shipped off to another for assembly, then drop shipped or warehoused then shipped off to local merchants. With nanotech capabilities and sufficient AI or even without it, we should be able to make this process even more distributed.

Rather than shipping parts to assembly houses we would be shipping raw nano-materials (the new &#039;parts&#039;) to local &#039;distribution&#039; houses which would only need enough space for a few large production units. Due to the physical nature of their products these local distributors would still specialize in particular product lines - scaffolds for nano-materials still take up space. They may even do so because they are official distributors for a particular brand of products and would carry out the &#039;manufacturing&#039;, distribution and marketing of the products to the local populace - tailoring the specifications to that market as only a regional producer can.

I can see a future where intellectual property does play a large role in this... big brands create blueprints (patented/copyrighted of course) for various products and then license out the rights to modify/customize that blueprint for said regional markets. Big brands may even provide the startup capital for their franchises in the same way they do now for their storefronts.

A typical shopping experience would be like going to a high end furniture store or auto dealership. You shop the floor models and pick out your base model, then select features (color/texture/material, optional sizes, style, etc) and place your order. For a large item it would be delivered to your home.. smaller items would be made while you wait. Obviously there would still be pre-fab&#039;d units available for those in a hurry or whom don&#039;t care for customization - these would be cheaper and would be what the production units churn out when not producing a custom product. Overruns might go off to someplace like Costco where you can buy in bulk and where there is warehouse space available.

SO buying all kinds of products would be a much more personal experience and variations on products which currently can&#039;t be made due to the need for consistent moulds and dies would be possible.
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		<content:encoded><![CDATA[<p>Large Scale manufacturers will always have an advantage with commodity products. What&#8217;s not clear about the future is what Large Scale means. Currently it means centralized manufacturing but in the future we may see more advanced distributed manufacturing.</p>
<p>Yes, we already distribute our manufacturing, parts are made in one location and shipped off to another for assembly, then drop shipped or warehoused then shipped off to local merchants. With nanotech capabilities and sufficient AI or even without it, we should be able to make this process even more distributed.</p>
<p>Rather than shipping parts to assembly houses we would be shipping raw nano-materials (the new &#8216;parts&#8217;) to local &#8216;distribution&#8217; houses which would only need enough space for a few large production units. Due to the physical nature of their products these local distributors would still specialize in particular product lines &#8211; scaffolds for nano-materials still take up space. They may even do so because they are official distributors for a particular brand of products and would carry out the &#8216;manufacturing&#8217;, distribution and marketing of the products to the local populace &#8211; tailoring the specifications to that market as only a regional producer can.</p>
<p>I can see a future where intellectual property does play a large role in this&#8230; big brands create blueprints (patented/copyrighted of course) for various products and then license out the rights to modify/customize that blueprint for said regional markets. Big brands may even provide the startup capital for their franchises in the same way they do now for their storefronts.</p>
<p>A typical shopping experience would be like going to a high end furniture store or auto dealership. You shop the floor models and pick out your base model, then select features (color/texture/material, optional sizes, style, etc) and place your order. For a large item it would be delivered to your home.. smaller items would be made while you wait. Obviously there would still be pre-fab&#8217;d units available for those in a hurry or whom don&#8217;t care for customization &#8211; these would be cheaper and would be what the production units churn out when not producing a custom product. Overruns might go off to someplace like Costco where you can buy in bulk and where there is warehouse space available.</p>
<p>SO buying all kinds of products would be a much more personal experience and variations on products which currently can&#8217;t be made due to the need for consistent moulds and dies would be possible.</p>
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		<title>By: Ben Jones</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391401</link>
		<dc:creator>Ben Jones</dc:creator>
		<pubDate>Wed, 03 Dec 2008 10:39:39 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391401</guid>
		<description>&lt;i&gt;Eliezer, it might take more than a few mail order proteins to take over the world.&lt;/i&gt;

Viruses are proteins.
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		<content:encoded><![CDATA[<p><i>Eliezer, it might take more than a few mail order proteins to take over the world.</i></p>
<p>Viruses are proteins.</p>
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		<title>By: michael vassar</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391400</link>
		<dc:creator>michael vassar</dc:creator>
		<pubDate>Tue, 02 Dec 2008 23:39:27 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391400</guid>
		<description>To clarify the above, at a best guess human equivalent AGI is probably impossible with 10^4 FLOPS humanly impossible with 10^10 FLOPS and fairly easy (e.g. a large but routine engineering project) with 10^22 FLOPS and trivial with 10^28 FLOPS.  When I say supersaturated I mean relative to the likely efficiency and power of AGI that might come out of revolutionary new understanding of cognition, for which I consider Moravek&#039;s and Kurzweil&#039;s estimates to be highly reasonable.
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		<content:encoded><![CDATA[<p>To clarify the above, at a best guess human equivalent AGI is probably impossible with 10^4 FLOPS humanly impossible with 10^10 FLOPS and fairly easy (e.g. a large but routine engineering project) with 10^22 FLOPS and trivial with 10^28 FLOPS.  When I say supersaturated I mean relative to the likely efficiency and power of AGI that might come out of revolutionary new understanding of cognition, for which I consider Moravek&#8217;s and Kurzweil&#8217;s estimates to be highly reasonable.</p>
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		<title>By: michael vassar</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391399</link>
		<dc:creator>michael vassar</dc:creator>
		<pubDate>Tue, 02 Dec 2008 23:12:33 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391399</guid>
		<description>william newman:  Nice analysis.  I&#039;m glad to have noticed your posts and would be happy to follow up if you email michael  aruna at yahoo dot you guess.  Anyway, I roughly agree with your sense that we are about 1-2 decades from supersaturation, but based on what I see from AI research I definitely don&#039;t expect to see AGI on that time frame.  I&#039;d be interested in your reasoning WRT expectations, because nothing I&#039;m seeing today seems all that much more impressive, on the software front, from what we had 20 years ago, and Laplace&#039;s law of induction tells me that this implies that I should give at least a 2/3 chance to nothing staggering on the software front in the next 20 years.
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		<content:encoded><![CDATA[<p>william newman:  Nice analysis.  I&#8217;m glad to have noticed your posts and would be happy to follow up if you email michael  aruna at yahoo dot you guess.  Anyway, I roughly agree with your sense that we are about 1-2 decades from supersaturation, but based on what I see from AI research I definitely don&#8217;t expect to see AGI on that time frame.  I&#8217;d be interested in your reasoning WRT expectations, because nothing I&#8217;m seeing today seems all that much more impressive, on the software front, from what we had 20 years ago, and Laplace&#8217;s law of induction tells me that this implies that I should give at least a 2/3 chance to nothing staggering on the software front in the next 20 years.</p>
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		<title>By: Latanius</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391398</link>
		<dc:creator>Latanius</dc:creator>
		<pubDate>Tue, 02 Dec 2008 21:28:20 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391398</guid>
		<description>Isn&#039;t the question &quot;how to structure our plants efficiently&quot; simply irrelevant given full scale nanotechnology? It&#039;s like &quot;where to put my only mp3 file so that the most people can listen to it&quot;. Isn&#039;t full scale about eliminating scarcity? And a fridge-size fab is probably too big... even evolution could build much smaller self-replicating machines.

Non-full scale &quot;nano&quot; (which is not fully self-replicating) is not a new thing, see the big silicon fabs. (The self-replicating parts of today&#039;s computers are called &quot;software&quot;.)

And I wouldn&#039;t worry about watching over big fabs just in case a superhuman AI wants to do something nasty... I&#039;m sure it would be more creative than that.
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		<content:encoded><![CDATA[<p>Isn&#8217;t the question &#8220;how to structure our plants efficiently&#8221; simply irrelevant given full scale nanotechnology? It&#8217;s like &#8220;where to put my only mp3 file so that the most people can listen to it&#8221;. Isn&#8217;t full scale about eliminating scarcity? And a fridge-size fab is probably too big&#8230; even evolution could build much smaller self-replicating machines.</p>
<p>Non-full scale &#8220;nano&#8221; (which is not fully self-replicating) is not a new thing, see the big silicon fabs. (The self-replicating parts of today&#8217;s computers are called &#8220;software&#8221;.)</p>
<p>And I wouldn&#8217;t worry about watching over big fabs just in case a superhuman AI wants to do something nasty&#8230; I&#8217;m sure it would be more creative than that.</p>
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		<title>By: luzr</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391397</link>
		<dc:creator>luzr</dc:creator>
		<pubDate>Tue, 02 Dec 2008 20:59:56 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391397</guid>
		<description>&quot;because I now think that evolution wasn&#039;t all that clever with our brain design, and that the 100Hz serial speed limit on our neurons has to be having all sorts of atrocious effects on algorithmic efficiency.&quot;

I think you might be right. Also, brains were not invented to think, in the first place.

To me, it all really seems to be the problem of software. We are seeking for &quot;gods algorithm&quot;. My guts feeling is that it will something relatively simple, I bet when somebody finaly finds it, we will all wonder why that have not happened much sooner..

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		<content:encoded><![CDATA[<p>&#8220;because I now think that evolution wasn&#8217;t all that clever with our brain design, and that the 100Hz serial speed limit on our neurons has to be having all sorts of atrocious effects on algorithmic efficiency.&#8221;</p>
<p>I think you might be right. Also, brains were not invented to think, in the first place.</p>
<p>To me, it all really seems to be the problem of software. We are seeking for &#8220;gods algorithm&#8221;. My guts feeling is that it will something relatively simple, I bet when somebody finaly finds it, we will all wonder why that have not happened much sooner..</p>
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		<title>By: James Miller</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391396</link>
		<dc:creator>James Miller</dc:creator>
		<pubDate>Tue, 02 Dec 2008 20:21:25 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391396</guid>
		<description>&quot;James, I&#039;m not following you. Larger centralized shipyards should contain more potential whistleblowers.&quot;

Let&#039;s say you need 1/3 of the industrial capacity to build a secret ship.  If there are three big yards you will need just one of them, so you just have to get the top managers of this plant to keep the secret.  But if there are 3,000 ship yards (of equal size) then you would need to have the managers of 1,000 ship yards keep the secret, something that will be very difficult.

Also, there  will be some variance in the cultures of shipyards in terms of how good they are at keeping secrets.  So the more shipyards that are in on the secret the more likely it is that you will have one that doesn&#039;t succeed in keeping the secret.

Let&#039;s say a government designed weapon could either be built by one company or 1,000 independent scientists who collaborate.  Wouldn&#039;t it be easier to keep the weapon a secret if it were built by just the one company?

If you just need one shipyard regardless of its size to build the ship then you would be right.
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		<content:encoded><![CDATA[<p>&#8220;James, I&#8217;m not following you. Larger centralized shipyards should contain more potential whistleblowers.&#8221;</p>
<p>Let&#8217;s say you need 1/3 of the industrial capacity to build a secret ship.  If there are three big yards you will need just one of them, so you just have to get the top managers of this plant to keep the secret.  But if there are 3,000 ship yards (of equal size) then you would need to have the managers of 1,000 ship yards keep the secret, something that will be very difficult.</p>
<p>Also, there  will be some variance in the cultures of shipyards in terms of how good they are at keeping secrets.  So the more shipyards that are in on the secret the more likely it is that you will have one that doesn&#8217;t succeed in keeping the secret.</p>
<p>Let&#8217;s say a government designed weapon could either be built by one company or 1,000 independent scientists who collaborate.  Wouldn&#8217;t it be easier to keep the weapon a secret if it were built by just the one company?</p>
<p>If you just need one shipyard regardless of its size to build the ship then you would be right.</p>
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		<title>By: Eliezer Yudkowsky</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391395</link>
		<dc:creator>Eliezer Yudkowsky</dc:creator>
		<pubDate>Tue, 02 Dec 2008 20:03:59 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391395</guid>
		<description>Ergh, just realized that I didn&#039;t do a post discussing the bogosity of &quot;human-equivalent computing power&quot; calculations.  Well, here&#039;s a start in a quick comment - Moravec, in 1988, used Moore&#039;s Law to calculate how much power we&#039;d have in 2008.  He more or less nailed it.  He spent a lot of pages justifying the idea that Moore&#039;s Law could continue, but from our perspective that seems more or less prosaic.

Moravec spent fewer pages than he did on Moore&#039;s Law, justifying his calculation that the supercomputers we would have in 2008 would be &quot;human-equivalent brainpower&quot;.

Did Moravec nail that as well?  Given the sad state of AI theory, we actually have no evidence against it.  But personally, I suspect that he overshot; I suspect that one could build a mind of formidability roughly comparable to human on a modern-day desktop computer, or maybe even a desktop computer from 1996; because I now think that evolution wasn&#039;t all that clever with our brain design, and that the 100Hz serial speed limit on our neurons has to be having all sorts of atrocious effects on algorithmic efficiency.  If it was a superintelligence doing the design, you could probably have roughly-human-formidability on something substantially smaller.

Just a very rough eyeball estimate, no real numbers behind it.
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		<content:encoded><![CDATA[<p>Ergh, just realized that I didn&#8217;t do a post discussing the bogosity of &#8220;human-equivalent computing power&#8221; calculations.  Well, here&#8217;s a start in a quick comment &#8211; Moravec, in 1988, used Moore&#8217;s Law to calculate how much power we&#8217;d have in 2008.  He more or less nailed it.  He spent a lot of pages justifying the idea that Moore&#8217;s Law could continue, but from our perspective that seems more or less prosaic.</p>
<p>Moravec spent fewer pages than he did on Moore&#8217;s Law, justifying his calculation that the supercomputers we would have in 2008 would be &#8220;human-equivalent brainpower&#8221;.</p>
<p>Did Moravec nail that as well?  Given the sad state of AI theory, we actually have no evidence against it.  But personally, I suspect that he overshot; I suspect that one could build a mind of formidability roughly comparable to human on a modern-day desktop computer, or maybe even a desktop computer from 1996; because I now think that evolution wasn&#8217;t all that clever with our brain design, and that the 100Hz serial speed limit on our neurons has to be having all sorts of atrocious effects on algorithmic efficiency.  If it was a superintelligence doing the design, you could probably have roughly-human-formidability on something substantially smaller.</p>
<p>Just a very rough eyeball estimate, no real numbers behind it.</p>
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		<title>By: Tim Tyler</title>
		<link>http://www.overcomingbias.com/2008/12/whither-manufac.html#comment-391394</link>
		<dc:creator>Tim Tyler</dc:creator>
		<pubDate>Tue, 02 Dec 2008 19:56:39 +0000</pubDate>
		<guid isPermaLink="false">http://prod.ob.trike.com.au/2008/12/whither-manufacturing.html#comment-391394</guid>
		<description>We have fairly a good idea about roughly what molecular manufacturing will look like initially - in terms of the spatial distribution of its outputs - since we have the similar examples of printing and rapid prototyping to work from.

Printers currently sit on our desks - but if we want a book or a magazine, we usually go to the shops.
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		<content:encoded><![CDATA[<p>We have fairly a good idea about roughly what molecular manufacturing will look like initially &#8211; in terms of the spatial distribution of its outputs &#8211; since we have the similar examples of printing and rapid prototyping to work from.</p>
<p>Printers currently sit on our desks &#8211; but if we want a book or a magazine, we usually go to the shops.</p>
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