IBM's Snowflake Microchips
Phantom of the Opera writes "The BBC reports that using self-assembled polymers and copying natural patterns, IBM hopes to have microchips that are 30% faster and consume 15% less energy. The secret? Adding a little nothing in all the right places."
What happened to the provocative, editorializing troll-summaries? How am I supposed to start a heated argument based purely on speculation? You give me what, two sentences, like you want me to read TFA? Well, fuck you. Self-assembling polymers? Copying natural patterns? Who makes these things, IBM, or CYBERDYNE? What if these get into the hands of our children? Will the next school shooting be 30% faster and 15% more efficient?
Making you think you're crazy is a billion dollar industry.
I know it comes as a surprise to no one that Mother Nature has some truly incredible engineering at work. I still, however, find it fascinating and amazing when examples like this come to light; I feel we will continue to see a lot more discoveries like this for the foreseeable future
I have two questions for Slashdot: Are there any other unique examples of learning from nature that you'd like to bring to light? And on a different note, do you think nature has perfected certain tasks and that its engineering can not be surprassed (at least in some areas), or are there things that even nature hasn't perfected?
-dave
http://millionnumbers.com/ - own the number of your dreams
Ripped from snpp:
Homer, meanwhile, uses a pickaxe to make some speed holes in his own
car.
Ned: Whatcha diddely-doin', neighbor?
Homer: Aw, putting speed holes in my car. Makes it go faster.
Ned: Is that so? Well, gee, maybe the old Flanders-mobile could use
some -- [a shot rings out] aah! [Ned collapses]
[he gets up slowly] Wow! Lucky I always keep a bible close to
my heart -- [boom!] aah! [Ned collapses]
[he gets up] Ho ho, lucky I was wearing an extra large piece of
the True Cross today. I think I'll go inside.
[a shot hits Homer's pick axe]
Homer: What keeps doing that?
Tony: I told you we should have bought more than three bullets. Let's
just grab him!
-- Louie the henchman, not the marksman, "Homer the Clown"
There is another kind of evil which we must fear most, and that is the indifference of good men. -- Boondock Saints
Making global warming 30% faster and 15% more efficient!
News at 11.
09 F9 11 02 9D 74 E3 5B D8 41 56 C5 63 56 88 C1 bottles of beer on the wall. Take one down, pass it round... Oh, umm...
Who cares about IBM.....I'm on a MacIntel now.....
Tolerance does not tolerate intolerance, or hypocrisy.
making love at of nothing at all.
something + nothing = ... more somethings
Is this sort of like the proof that 2 = 1 or what
"Hegelians, who love a synthesis, will probably conclude that he wears a wig." - Bertrand Russell
melt...
In Soviet Russia, a little nothing adds you!
But seriously...
Step 1: Create fast microchips that consume less energy
Step 2: Get sued by the oil companies for making them lose money
Step 3: Profit!
So, no two will be alike? Programming for them will be interesting.
Would this mean breaking one in half would make some kind of cool fizzing sound? Move over bubblewrap!
Task Mangler
So does this mean no two chips are alike?
I'm sure that it will be pumped full of all the troll fodder you hope for, and more, when it returns in six or six weeks.
this is just a "dry run" the good stuff will be in the dupe
-- Sig under construction...
I think we cannot gloss over the "non-biotic" evolution here, if there is even such a thing at all.
How is it that there is a "natural selection" for inanimate objects? How can such beautiful, non-living structures be works of randomness? There has to be an intelligent creator-being, no?
Does this mean that they drop the silicon from 3 miles up and then try to catch it on their tongues?
So IBM has come up with a manufacturing method using self-assembling molecules to produce regular arrays of 20 nanometer objects on the surface of a silicon wafer with near-perfect yeild. (I presume, since "growth" was involved, it would be possible to use it to construct similarly-spaced objects of sizes within a factor of about 3 to 4 of the size they chose for this process.)
And yesterday we saw a slashdot article referencing work at Rice U, Los Almos Labs, and others, where 5 to 8 nanometer quantum dots on the surface of phovoltaic cells could significantly multiply the efficiency (perhaps into the 60% range) by efficiently creating multiple electron-hole pairs per incoming photon.
Seems to me the two are just ASKING to be combined into an inexpensive manufacturing process for high-efficiency solar panels.
Doubling to quadrupling the output of solar panels while keeping the cost in the current ballpark might push photovoltaic past the cost-breakeven point compared to grid power for rural and even suburban housing loads. And that could lead to enough production to bring in additional economies of scale and drive the price point farther.
This could be big.
Bantam Dominique roosters crow a four-note song. Once you've heard it as "Happy BIRTHday" you can't NOT hear it that way
to achieve less power consumption and more speed is the new-GHZ.
.....
Hmmm - I need to make that a bit more snappy
Its not the years, its the mileage
In order to meet increased demands for hype, IBM also announces the construction of a new fab for hype construction. "For a long time we hoped that we might retrofit the Cell hype fab to construct Snowflake hype, it is now clear that this new processor demands a completely new fab to create the quality and quantity of hype needed. This new hype will be so overpowering every engineer and programmer will have to relearn everything or risk being left behind. We expect our Snowflake hype will outperform our closest competitor by close to 5000%. It will also be cheaper." IBM engineer Thor Larssen stated.
Being bitter is drinking poison and hoping someone else will die
Linked below is an interesting example:
A Sponge's Guide to Nano-Assembly
A new way to create complex nanostructures will improve batteries and solar panels.
http://www.technologyreview.com/Nanotech/16959/
I for one welcome our 30% faster and 15% more energy efficient overlords! Now, they can catch olympic runners and consume less fuel doing it! Hooray!
-=ThX=-
White space always helps
Copper wire is not inlaid into silicon chips, as far as I know. I don't think they meant copper wire.
This doesn't have anything to do with snowflakes or nature. Just a self-assembling polymer that can be used as a mask to etch holes in the oxide layer of the silicon chip, making the oxide a better insulator.
In hell, you will find a mountain of broken, feces-covered typewriters and a stack of copies of the First Folio.
I wonder if they can tweak the ratio so that the chips run 10% faster but consume 40% less energy. Chips are pretty fast now, but battery life is still a bit of an issue - I'd be really interested to see if they could eke a few more hours out of portable devices (for example) and I'd be happy to keep it at the same speed.
Now I am the Master!(EE)
i tor
I'll default to a "wait & see" perspective, but this has a firm basis in device physics.
One of the major speed limiting factors in microelectronics is capacitive loading. With the tiny scale of contemporary semiconductors "wire capacitance" has become the dominant delay factor. Since the wires are so close together, adjacent wires produce a parasitic capacitance effect(extra load on the circuits) similar to this.
http://en.wikipedia.org/wiki/Parallel_plate_capac
(The article on parasitic cap didn't say much)
As you can see, this capacitance varies directly with the size of the wires, is inversely proportional to the distance between them(shrinking all the time with new process technologies), and directly proportional to the "dielectric constant" of the material between them.
Air has a dielectric constant of ~1.00. Silicon Dioxide, the typical insulator in semiconductors is ~3.9.
http://en.wikipedia.org/wiki/Low-k
Other glass-like materials have been experimented with, but I haven't read about many successes.
So, essentially if you could "leave out" the SiO2 insulating material, you could reduce the parasitic capacitance of the wires by a factor of 3.9. Nothing to scoff at if you can actually pull it off.
Actually, 'Junk DNA' is useful, as it seperates and spaces genes, and gene-complexes. The further apart genes are on a chromosome, the more likely they are to recombine, or re-mix, in a different combination. (Each gene comes as a pair, one on each of the two copies of each chromosome, and sometimes the gene-pairs aren't exactly alike.) Sometimes it isn't a just new gene that is having a novel effect, but the other genes it finds itself with.
Also, since chromosomes recombine, if the recombination occurs in 'Junk DNA' (DNA that doesn't code for a gene), then that means the gene itself is safe from being changed in a potentially negative way, whilst still remaining 'mobile' within the chromosome/s.
Is this a rhetorical question?
If intel uses snowflake technology then no 1.9999998875 chips will be the same!
In the not too distant future, next Sunday A.D.
...copying natural patterns
You're violating my patent!
-God
Let me be the first to ask: All well and good, but does it run linux?
Like the Young's modulus, etching properties, copper diffusion and reliability data. Any one has a real paper? Is it dendrimer based porous MSQ?
There is a spark in every single flame bait point.
So, does that mean that using air as the insulator would be better, or worse? I'm not quite up to date on physics like this. Can you roll out some layman's terms?
Still waiting on Serviscope_minor to wake up to fucking reality and realize that Jessica Price isn't going to fuck him.
"Hydrogen merrily grabs other hydrogens, carbon loves a pair of oxygen, so and and so forth."
It's a regular atomic orgy!
Still waiting on Serviscope_minor to wake up to fucking reality and realize that Jessica Price isn't going to fuck him.
So these chips have holes in them... are they structurally weaker? Do we need to worry more about dropping devices made of them?
I suppose it's possible they might be stronger, but that would be a coincidence... they didn't do this for strength.
'In knowledge is power, in wisdom humility.'
... but how much CHEAPER is it?
As semiconductor devices scale smaller and smaller, making features on the chips becomes increasingly expensive as we transcend the range across which past lithography-based fabrication techniques operate effectively. This seems like it might have the potential to produce some features at a much lower cost than via masks and multiple layers of etched handiwork. And it might have room to scale smaller while maintaining the same cost profile. So it's possible that the biggest percentage improvements might be related to cost.
Of course, all that will have to wait for actual engineering experience to know for sure, but it certainly seems like it might have potential in that area.