
How Printable Computers Will Work 151
Gart points to this article on printable computers, an "Illustrated narrative [that] shows how users will simply download microchip designs from the Internet and print out a working ink-based, plastic processor on a desktop fabrication machine, similar to an ink jet printer." This is a nicely lucid account, and straightforward about the reasons that you probably won't start printing out a new motherboard this evening. Still, a glimpse of the future; this is one technology it will be cool to watch emerge from vapor.
Re:E-Paper (Score:1)
Stack em (Score:1)
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Babes for the geek: babes.foobla.com [foobla.com]
Won't take off. (Score:1)
Open Source Hardware (Score:1)
Just like GNU or BSD software, and what have you.
Of course, there'll be the shareware hardware, where someone will want to charge $15 for crap that doesn't work. Imagine the license agreement - "Please send $15 to: xxx, or this hardware will self-destruct in 30 days."
But really, the open source hardware idea would work here. People with an interest in hardware could really get down to the nitty gritty and see how things work.
Re:Imagine... (Score:1)
I just attended a Seminar on these materials (Score:1)
Her joke on the matter was that right now, they might be able to print out a 60 Hz Pentium. Don't expect high speed electronic systems from this stuff in the near future.
Besides, a better use for these materials might be in photovoltaics, if they can make junctions that undergo photoelectric effect in the infrared.
Re:The next big thing in security: (Score:1)
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Re:'A' For Everything (Score:1)
tnx,
Jo
Re:'A' For Everything (Score:1)
Jo
Re:E-Paper (Score:1)
And my boss thinks PHOTO paper is expensive... (Score:1)
the future won't hold motherboards (Score:1)
Re:The future... (Score:1)
This is important (Score:1)
... And this is the perfect vehicle to let people do that. Sure we can't develop then next x86 processor with this technology. But the geek down the road might have a hunk of plastic that he's developed to control the lights in your house, or a new USB you plug into your computer that appears as some neato device.
To heck with the Pentiums, print me some Benjamins (Score:1)
Or am I just slow on the uptake?
Re:CNN picked up the story (Score:1)
CNN picked up the story (Score:1)
Open Source hardware??? (Score:1)
So we're going from .13 micron to (Score:1)
So how big will our chips be?
And, are we buying a licence to print the processor, does the actual processor belong to us, and are we allowed to print duplicates when the dog eats the 1st one?
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Think of the Implications! (Score:1)
Download your own bootleg PS2!
Companies that deal in information, anything that can be represented in 1s and 0s are freaking out because it is so damned easy to trade their precious property on the net (or it will be really soon).
With this sort of technology what's to stop us from trading bootlegged schematics across the net? Hardware manufactures won't be safe anymore.
To project into the future with nanotech ala "The Diamond Age", NOTHING is safe. Why should you bother to buy the PS2-equivilent when you can just download bootlegged specs from Gnutella and have your army of nanos crank it out?
The future will be interesting on so many levels...
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Re:Density issues (Score:1)
Still, if they can get one transistor in 25 microns square, and handle all the wiring in other layers:
* The original 68000 (with 68,000 transistors) fits in a 6.5 by 6.5 mm square.
* The original 80386 (with 275,000 transistors) fits in a 13.1 by 13.1 mm square.
* The original 80486 (1.2M transistors) needs 27.4 by 27.4 mm (just over a square inch). Once we get to this stage a lot of the transistors are L1 cache.
Unfortunately, the definition of "feature size" is not the minimum width or length of a transistor, but instead the smallest dimension that can be reliably fabricated on a chip. On digital ICs, the feature size refers to the minimum gate length. The actual transistor, when factoring in total gate and source/drain diffusion areas, is much larger than the square of the feature size.
To estimate how much area it would take to port a microprocessor to this printing process, the best approximation is to scale the area of the original chip by the ratio of (25 um / (x) um)^2, where (x) is the original feature size. The original 80486 die was 0.414 inches by 0.649 inches with a feature size of 0.8 um. The "printed" 80486 would therefore be 12.94 inches by 20.28 inches! Furthermore, it would be much slower than the "old" 80486 because of the lower mobility and much higher capacitance of the transistors. You would be lucky to clock it at 1 MHz.
Although this printing process would be great for low power embedded applications (e.g. "smart" wallpaper, giant displays, ultra-cheap dumb terminals, throwaway sensors, etc.), you'll never get the kind of high-performance computing you'd expect from a laptop or desktop, or even a Palm PDA for that matter. Performance-wise, this process will never compete with traditional silicon and submicron lithography, although it will find some useful and profitable applications.
Re:Density extension... (Score:1)
Until it went up in a big poof of smoke from the heat... How do you cool a 3d IC, made out of paper (not a good heat conductor) no less?
Iron-On Transfers (Score:1)
Don't they make iron-on transfers for printers nowadays? Let's combine the two technologies and create ready-to-wear computers!
Need one now to Hack DTV (Score:1)
I could be printing up a whole bunch for everyone i know.. sweeeeeeeeet.
Overclocking (Score:1)
Re:A dream about printable circuits (Score:1)
Re:The power of being a troll! (Score:1)
Ok, let's stop (Re:stop it now.) (Score:1)
That's funny. your user info page says "Please donate your used, reliable PCs and Macs to independent journalists here [indymedia.org]". We should stop that, because it "will destroy the need for a computer hardware insdustry in certain sectors."
Also, this designs could be open-sourced.. That would be nice.
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"Overclocking?" (Score:1)
That might be expensive, but if that wasn't a concern....
3d Printing! (Score:1)
.--bagel--.---------------.
| aim: | bagel is back |
| icq: | 158450 |
All we need, is one more reason.. (Score:1)
Re:All we need, is one more reason.. (Score:1)
open source support (Score:1)
Richard Stallman's Free Hardware Foundation(FHF) ? (Score:1)
A printed CPU with a printed flatscreen display, printed speakers, keyboard, pointer device, and a nice install of GNU/Linux. All downloaded from the web. All GPL'ed.
Re:Printable Components (Score:1)
Re:Yes! (Score:1)
Re:That's not so bad... (Score:1)
Re: (Score:1)
ahem (Score:1)
Ahem.
VAPOR!
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Sounds nice, but (Score:1)
However, this might be a great product for the do-it-yourself electronics guru. I would have a hay-day printing out my own circits and testing them. My hands are too shaky at times and soldering can be difficult. Most notably before the daily intake of caffeine. Trying to get those surface mount electronics on the board, man, those are hard to do!
Re:stop it now. (Score:1)
Re:The next big thing in security: (Score:1)
"Hey wait a minute, I didn't download the newest heavyweight Battle Bot model. YAARAARRRRRRggggGGGGG!"
-Tyler
Re:Or... (Score:1)
Sean
Re:Or... (Score:1)
Sean
....and overclocking (Score:2)
Not only do you risk ruining your CPU, but now if you overclock your video card, you could melt your CPU!
wonder what it'll do for recycling - hitech and lotech plastic recyclables.
I've been printing computers... (Score:2)
Denisty problems are worse than this. (Score:2)
The original 80386 (with 275,000 transistors) fits in a 13.1 by 13.1 mm square.
It turns out that it's much worse than this. The minimum feature size gives you the minimum gate width you can use (if you're lucky). A transistor, contacts and all, takes up easily ten times this in both directions (after spacing rules and so forth have been taken into account).
Speed is also inversely proportional to the square of the feature size. Going from 0.25 micron to 25 micron slows you down by a factor of about 10,000 (give or take). You'll end up with microchip wallpaper that runs at 50 kHz.
There are uses for this (big active displays comes to mind), but computers aren't one of them.
Re:The future... (Score:2)
Neat, huh?
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who writes the drivers...? (Score:2)
Re:The next big thing in security: (Score:2)
"Um... no... that's not a webcam printed on my condom, or something.."
Just another example of (Score:2)
Re:stop it now. (Score:2)
There seems to be a new trend to have software contact a company's servers to see if it's been pirated or not. Hardware could do the same, and if it's pirated it could explode and leave an inky mess all over just like the capsules banks put in with stolen money.
Re:CNN picked up the story (Score:2)
Re:'A' For Everything (Score:2)
Kintanon
Re:'A' For Everything (Score:2)
And it didn't really occure to me until you mentioned it that Land really should be the most valuable item in a society like that... I think I'll reread the book tommorow and see if they mentioned it while I wasn't paying attention.
Kintanon
Long time?... (Score:2)
Big implications for and against freedom (Score:2)
At the same time, we're seeing a strong attack on the programmable, user-controlled computer by the Intellectual Property cartel. Maybe we'll end up using CP/M on 1979-vintage machines because the current crop of hardware is too locked-down and tamperproof. A machine like that could be open-sourced and downloaded from the internet.
On the flip side, I see many possibilities for abuse. Manufacturers could build flat computers into cereal boxes, shipping labels, even software packaging. Lots of places to monitor, advertise, and present license agreements. Lots of stuff that quietly 'phones home'.
Is it good or bad on the balance? Doesn't matter - nobody can roll back technology.
Re:The next big thing in security: (Score:2)
Re:All this technology is useless... (Score:2)
Transistors, yes, but what about a full CPU? (Score:2)
What about the metal interconnect? Aluminum or copper... or not metal at all? What about metal layers and via's? What kind of package will this "die" go into?
I'm curious as to how they plan to address these issues
Just imagine.... (Score:2)
Or maybe the Gimp could have a plugin for printed circuits
Oh great.... (Score:2)
Sean
Another A.C. Clarke prediction? (Score:2)
Forbidden Knowledge (Score:2)
Come to think of it, this moves computer technolgy, such as creating machines to do "x, y, or z" into a freedom of the press realm.
The petty little potentates pop paranoia and profiteering must be trembling in hooror at this, once they figure it out and see it coming down the road.
This could be fun!
Hardware free speech? (Score:2)
Now, granted, these would be pretty screwed up songs. And pretty long! And I guess haiku is out of the question. But in theory, this could lead to free-speech-like implications that the hardware industry may not have had to deal with yet.
Sing me a song, you're the VLSI man...
Not very likely... (Score:2)
Re:A dream about printable circuits (Score:2)
But good idea. Ooops... bad idea. We don't want this to actually happen.
Yes! (Score:2)
I can't wait to have a 10x8 foot monitor! I'll scare the heck out of my neighbors with life-size Q3A!
Copyright? Mix IP and copyright all of a sudden! (Score:2)
Can program VCR
Cannot program VCR
The Can program VCR group will be divided into
Can read PCB
Cannot read PCB
Joking aside, it wouldn't be difficult to, like a script kiddy, just download blueprints and get yourself a homebrew mp3 player, but how can you 'trust' such kits, implicitly, any more than you can trust software?
Mostly it should be okay, but the odd virus here and there could wreak havoc on someone. So a new class of 'anti-trojan' software, as well as more literacy in computer skills in general, needs to taught.
I would like to have a private fab and rapid prototype lab in my garage. That would be muy nifto.
Louis
Geek dating! [bunnyhop.com]
Duh! (Score:2)
I spend time and effort to develop a car Ogg player and GPS receiver.
I am part of a group of people who have similar interests, so we all share our variations on the designs, LCD or display implementations, voice activated, IR, bluetooth, etc.
Over a period of months or years, we all have in car dash Ogg players, GPS recievers with voice activation and other random stuff.
Other people take this and adapt it to Visor handspring modules
They add power saving and cycling functions, or something. Or they make it smaller.
Feedback occurs, and the indash unit becomes smaller. We get enough space to add more features.
Back and forth.
Isn't this how the Open Source model works?
Geek dating! [bunnyhop.com]
Re:Imagine... FUNNY, but seriously.... (Score:2)
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Dammit! (Score:2)
"Is there a jam?"
"...it says it's out of toner?"
Re:Density issues (Score:2)
But if the printer could do a 3-d chip, and you could adequately cool such a chip, then a pentium class chip is possible.
Anyways, it might be possible to do a mini-cluster of cpus to give the same power. If "printing" hardware becomes cheap, I'm guessing the computer designs will adapt. Maybe, instead of a localized cpu/memory/etc, the components would be integrated. Imagine a "motherboard" with each square inch of it being its own cpu/memory. There would be no seperate vid/sound/modem cards, just the appropriate connects on the edge of the board. Rather spiffy.
Uses (Score:2)
The biggest use of these is likely to be in units that have to travel to places where getting replacement hardware is difficult. Such as extraterrestrial expeditions, or armies at war on earth. Combine this technology with a fabber and you can build whatever replacements you like when things break.
The far ahead possibilities include virally spreading across the universe using fabbers that build more fabbers...
E-Paper (Score:2)
Ooh, there's some ideas (Score:2)
2010 eGates hardware over throws governments
2012 eGates hardwar controls 90% of the internet
2013 TuxBoard Manufacturing, ESR CEO started in conjunction with the GNU Project has begun. The EG Supercomputerweb laughs.
2013 People sick of having their homes burn down try TuxBoard Manufacturing out of curiosity and hope
2014 EG SCW now scared. FUD attacks: TuxBoards don't burn down, they must not be capable of the high-level processing.
2015 Cox on a Chip capable of making eGates hardware work without burn out and without the need for Windows 9000 XPIJFLSFN
2016 Helsinki almost nuked, but bombs fail to go off, and land 300mi out of range...hardware failure.
2018 Redmond uprising attempts to overthrow EG SCW
2020 After the 100 GHZ war, Linus Torvalds reigns as occaissionally benevolent emperor over 98% of the world.
2021 New Zealand finally ready to cater to AmigaSketch users.
2024 Massive solar flare damages most of the computer world.
2025 Etchasketch becomes popular
2026 Printable punch cards arrive on the outskirts of the remaining ecivilization.
2027 Last Beowulf cluster dies in captivity.
2028 Torvalds frozen and displayed for all to look at.
3028 Cockroaches and lawyers wonder why there is a frozen person on the European continent. Lawyers wonder if he has money (which looks a lot like punch cards)
3030 The Troll Niscenus and a band of AnonCows re-establish world order with a central hub of infromation they call DotSlash.
So, who's up for volleyball?
The power of being a troll! (Score:2)
I don't think we'll see printers sketching 8-atom wide paths on unborn microchips, ever.
A) The "printer" would cost way to much for any common use.
B) Have you seen the size of the machines that currently do this? They're ENIAC, hyperbolicly speaking.
C) By the time anyone gets this going, computer will be communicating on their boards and processors with 8bit light streams rather than electonic anything...err, not that I know anything. If Century Tel didn't buy GTE from Verizon, you wouldn't not know anything either.
I usually get turned into a troll everytime I say this, but, "Who's up for volleyball!?"
Not for CPU's (Score:2)
There are actually many control applications where a small 8-bitter running at KHz speeds is quite sufficient. But you can buy good 8-bit silicon CPU's for $0.50 to $15 (depending mainly on how many pins you need), and I don't see any chance of these plastic circuits beating those prices.
What this might be good for is the custom interface circuits that are virtually always needed between the CPU and the world. These usually wind up either as a large number of generic components, soldered onto a fair-sized circuit board, costing perhaps $20 to $100 to utilize a $5 CPU. Or you can use a few programmable logic device chips -- but these cost more than the CPU. So if they can get reasonable price/performance, you might eventually see printed plastic circuits containing the "glue logic" as well as the resistors, capacitors, and ESD-suppressing diodes -- so you just solder on the CPU chip and its ready to go. (But not for a Pentium motherboard -- think about the speed.)
More realistically, there are many applications where large, low-performance circuits would be ideal. Displays, for instance -- you can etch a wonderful display into a silicon chip, but you need a microscope or a good projection system to read it. Maybe they will soon be able to print the same circuit in plastic at readable size.
Agreed - how about BEAM? (Score:2)
This wouldn't be suitable for most computing applications, where designing software for a generalized processor would be easier and more effective most of the time.
But for dedicated and experimental electronics, it'd be golden. Just think how much this would accelerate prototyping and design for BEAM robots [lanl.gov], since you don't have to mess around with soldering bunches of components!
cryptochromeIsn't this old news?? (Score:2)
'A' For Everything (Score:3)
Kintanon
Re:Copyright? Mix IP and copyright all of a sudden (Score:3)
However, I doubt we'll see any sort of IC fabs capable of producing anything as complicated as say, a 555, on the desktop within the next 50 years. Call me skeptical.
Electronics buffs, we build stuff that we download, design, read in books, etc. Automation would be getting access to a plotter or a UV rig for making PCB construction much, much easier.
It's all ready been done! (Score:3)
Re:Density issues (Score:3)
A dream about printable circuits (Score:3)
Printable PDA's were developed. You could have them printed on the surface of your skin. No more need to wear a wristwatch, you would just print a PDA on your wrist.
Problem was (in the dream) that they would wear off, and you would have to have them reprinted (Or have a newer better model printed) onto your wrist.
They became so common that everyone had to have on in order to just carry on daily life, business transactions, etc.
Poor people couldn't afford $40/mo to print these things on their wrists.
So good ol' corporate greed stepped in to help. You could get a sponsored low-end PDA printed onto your right hand by agreeing to also have a color animated advertising banner printed across your forehead. Next month, come back, pay homage to corporate greed. Repeat.
Don't laugh. I really did dream this. (I said, no laughing.)
Those who can, do. Those who can't, use Windows.
Re:Density issues (Score:3)
Now that's the real trick, isn't it? In modern integrated circuit design the interconnect uses up more area than the transistors. Even if you could do all the wiring in other layers (by the way, only VERY recently have ICs come out with lots of layers. One or two wiring layers was the standard for YEARS) you would still need lots of vias to move the signals between layers and down to the transistors.
And as for cost, I just checked MOSIS and if you needed a 6.5mm by 6.5mm square silicon chip fabbed, MOSIS would charge you about $70000 for a lot of 25! Kind of pricey for a 68k processor, don't you think?
There are a lot of reasons silicon is useful, and I'd be VERY suprised if people started printing chips out on their desks.
stop it now. (Score:3)
the gamers, the kids, everyone who uses their computers as a hot rod and doesn't have mission critical stuff running on them, will pirate hardware.
There could be a licensing agreement, but how do you track pirated hardware? use it on the Net and it sends out a call signal? I don't think so. Even if it could be traced, people would just set up parallel intranet networks with the stuff instead of using it on the Internet, where cops, et al could track it.
All in all, opening the doors to terrorists, foreign intelligence agencies, and anybody else who wants to reliably gather information without much expenditure and without being traced.
Density extension... (Score:3)
Back in the olden days... (Score:3)
Don't underestimate the importance of this.
I predict one of the earliest practical application will be a real credit-card calculator -- one the same size and thickness as your credit cards. Feature size will probably go down at about the same rate it has for silicon. Remember, back in the 70's feature size on silicon wasn't much better than what these guys are aiming for. And neither was the speed -- remember 4000 series CMOS? Yet these chips were the backbone of all technology when they were expensive.
This was a good article, well balanced and without a lot of the usual hype about how the tech will result in self-assembling skyscrapers. These people have modest, achievable goals. It will be interesting to see what they do.
Napster Anyone? (Score:3)
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Carver Mead (Score:3)
It must be 20 years ago now that Carver Mead was talking about having a machine on your desk that would fabricate silicon integrated circuits for you.
Anyone who's seen a fab line knows it's not that simple. The closest anyone came was e-beam lithography, but those machines are still the size of your bathroom, and still only do some of the processes.
It's pretty interesting to think about printing chip layers like a multi-pass color laser printer.
But can you imagine the toner-cartridge spam you'll get when there are ten kinds of toner material needed, and some run ten bucks a pass?
--Blair
"Dammit! I left my TiVo folded up in my pocket and it went through the wash again..."
Critical for long-distance space travel! (Score:4)
One of the critical problems for long distance space endevours is what to do when/if you need to replace hardware in your systems when you're far far away from any fab plant. This kind of technology will go a long way to making the problem moot.
More fun filled facts! (Score:4)
The electron mobility in polymers is MUCH lower than Si (a slow semiconductor), a fact that is mentioned in the article, but glossed over on this page. Overclocking these guys still won't get you very far.
One thing not mentioned is the short shelf life of these things. They tend to degrade in days to weeks, depending on the material.
I could go on, but I won't. I'm just glad to see this finally out in the popular media.
Density issues (Score:5)
They are talking about achieving a 25 micron feature size. The current generation of processors is being done with an 0.13 micron feature size, meaning that the number of gates you can fit on your plastic chip is about 40000 (200 times 200) times lower.
Still, if they can get one transistor in 25 microns square, and handle all the wiring in other layers:
Trying to get much bigger than this (do the P5 in two inches square) is likely to be a loser because getting the signals across these large chips is going to be slow unless you use enough power to melt the plastic.
Memory: if you can do one bit in 25 by 25 microns, a square inch (2.54 cm on a side) gives just over one megabit (bits, not bytes). You're probably not going to be running Gnome or KDE on this.
All this technology is useless... (Score:5)
"Hello, Domino's? Can you e-mail me a large pizza with mushrooms and extra cheese?"
But then, that might bring a whole new meaning to "Spam Mail"
Bad business model (Score:5)
The next big thing in security: (Score:5)
The future... (Score:5)
Woo (Score:5)
Don't you have any sense of decency, to post such utter garbage in the first place, perdida?
(go ahead mark me as troll or whatever, it really doesn't matter)
Geek dating! [bunnyhop.com]
Imagine... (Score:5)
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