7 ms·

Atoms star in world's smallest movie from IBM

92 points by T-zex 13y ago

Toshio 13y ago
When everything starts to fall apart for your business model of milking your customers for all they're worth and outsourcing all you can to cheap countries, have Carrie Underwood sing and make geeky movies about boys playing with atoms.
non-sense 13y ago
It is incredible to think how we can control atoms so precisely! This shows how nascent this science is and we have to go a long way. Once precise nano-control becomes more widespread we will see a new wave of engineering delivering goods that we thought were possible only in movies. At very high storage densities everyone of us could carry the same amount of data that powers Google's search engines.
T-zex 13y ago
I like this quote: "This isn't really about a particular scientific breakthrough. The movie is really a conversation-starter to get kids and other people talking about - and excited about - math, science and technology." Technology gets the momentum once it is demonstrated to be used in some fun or even crazy ways.
Patient0 13y ago
Once you can manipulate atoms directly, I wonder why you couldn't create any of the following: - Tiny self-replicating machines which produce other things to atomic precision? i.e. Nanobots... which could in turn create: - "Surfaces" with "unimaginably high" surface area (due to the fractal arrangement of atomic height on the surface) - "Solids" made out of dense things like 'iron' or 'carbon' and which have a volume but hardly any mass because there are so many holes (e.g. a 3D sierpinksi triangle) ... just 'data storage' seems the least exciting application (but then probably I'm misunderstanding some limitation...) I'm inspired by this video: http://vimeo.com/63469979 http://vimeo.com/63469979
- Osmium 13y ago
  It's pretty much moving atoms in two-dimensions only (essentially pushing them on a surface with a tiny needle). And it's painstaking--you certainly couldn't make anything on the macroscopic scale. I doubt even nanobots are feasible (how would they work?). Also, in the case of e.g. the 3D Sierpinksi triangle there'd be structural issues (the voids would be fill with something), and you'd be up against entropy (there would be defects, so I'm not sure if it wouldn't just collapse) so it's really not much more than a thought experiment at this time. And, ultimately, what would be the point? Unless you can get novel electronic or mechanical effects etc. I'm not sure it'd be worth it.
- shocks 13y ago
  That was awesome, thank you for this video. The demoscene is inspiring.
  - Patient0 13y ago
    You might find this page interesting too - goes into some detail on how it works: http://inst.eecs.berkeley.edu/~cs184/sp12/assignments/Archive/HW6/Fractal%20Renderer.htm http://inst.eecs.berkeley.edu/~cs184/sp12/assignments/Archiv... I'm itching to go try writing one now...
- Retric 13y ago
  We basically have nanobot's. The problem is unlike science fiction working at the atomic scale things don't react the same way. For example you can build a motor, but ATP or something close it it's going to be the fuel as heat engines don't really work. Which is why we end up using Bactria/viruses/plants/animals and simply overwrite their DNA. Granted we can get a lot better but don't expect anything to be both small and intelligent even the simplest chip is huge we compared to a virus.
- sp332 13y ago
  Insanely-high surface area materials exist, the best example I can think of is activated charcoal https://en.wikipedia.org/wiki/Activated_charcoal#Properties https://en.wikipedia.org/wiki/Activated_charcoal#Properties but batteries are using it too http://spectrum.ieee.org/nanoclast/semiconductors/nanotechnology/graphenebased-liion-anodes-go-commercial http://spectrum.ieee.org/nanoclast/semiconductors/nanotechno... "Solids" like you mention are aerogels https://en.wikipedia.org/wiki/Aerogel#Alumina https://en.wikipedia.org/wiki/Aerogel#Alumina and this new aerographite http://www.extremetech.com/extreme/133056-aerographite-six-times-lighter-than-air-conductive-and-super-strong http://www.extremetech.com/extreme/133056-aerographite-six-t...
mjfisher 13y ago
The thing I find most fascinating about tunnelling electron microscopes is those "ripples" you can see around the atoms. Because of the tunnelling effect that those microscopes rely on, they're actual manifestations of the electrons' quantum mechanical wavefunctions; the complex waves of pure probability that are - when you get right down to it - the best answer to the question "what is an electron made of?" Ripples in probability and a few associated numbers like mass, charge and spin; that's it. Nothing more. And you can actually see it in the video. Very, very cool.
- bane 13y ago
  Yeah, I was going to ask what those were. If that's the case, it was interesting to me that the waves appeared to manifest a bit like a standing wave, with regularly repeating, equally distanced, higher and lower probability/amplitude propagating away from the atomic groups. If that's correct, and electron probability wave functions mimic a standing wave, do different atoms have different standing wave frequencies? Does the resonance between different elements create any physical properties or predict anything...like what elements are likely to form a compound or the physical property of a compound?
  - sp332 13y ago
    Yes, great insight! One of the reasons quantum mechanics is "quantized" (which means limited to certain discrete values instead of being continuous) is that standing waves are reinforced as particles move around. For example, the rotational frequency/energy of an electron is limited to integer multiples of the circumference of the orbit. The "particle-in-a-box" model is the name of this quantum model. https://en.wikipedia.org/wiki/Particle_in_a_box https://en.wikipedia.org/wiki/Particle_in_a_box
    - bane 13y ago
      ah, so is what we're seeing in some sense the energy state of the electron? Or is it some probability function of what state the electron might be in? I'm mentally trying to connect this image to modes of a vibrating string [1] 1 - http://hyperphysics.phy-astr.gsu.edu/hbase/waves/imgwav/strhar.gif http://hyperphysics.phy-astr.gsu.edu/hbase/waves/imgwav/strh...
jacquesm 13y ago
More atoms starring in movies by IBM (1977): http://www.youtube.com/watch?v=0fKBhvDjuy0 http://www.youtube.com/watch?v=0fKBhvDjuy0

92 points by T-zex 13y ago

When everything starts to fall apart for your business model of milking your customers for all they're worth and outsourcing all you can to cheap countries, have Carrie Underwood sing and make geeky movies about boys playing with atoms.

non-sense 13y ago

It is incredible to think how we can control atoms so precisely! This shows how nascent this science is and we have to go a long way. Once precise nano-control becomes more widespread we will see a new wave of engineering delivering goods that we thought were possible only in movies. At very high storage densities everyone of us could carry the same amount of data that powers Google's search engines.

T-zex 13y ago

I like this quote: "This isn't really about a particular scientific breakthrough. The movie is really a conversation-starter to get kids and other people talking about - and excited about - math, science and technology." Technology gets the momentum once it is demonstrated to be used in some fun or even crazy ways.

Patient0 13y ago

Once you can manipulate atoms directly, I wonder why you couldn't create any of the following: - Tiny self-replicating machines which produce other things to atomic precision? i.e. Nanobots... which could in turn create: - "Surfaces" with "unimaginably high" surface area (due to the fractal arrangement of atomic height on the surface) - "Solids" made out of dense things like 'iron' or 'carbon' and which have a volume but hardly any mass because there are so many holes (e.g. a 3D sierpinksi triangle) ... just 'data storage' seems the least exciting application (but then probably I'm misunderstanding some limitation...) I'm inspired by this video: http://vimeo.com/63469979 http://vimeo.com/63469979

Osmium 13y ago
It's pretty much moving atoms in two-dimensions only (essentially pushing them on a surface with a tiny needle). And it's painstaking--you certainly couldn't make anything on the macroscopic scale. I doubt even nanobots are feasible (how would they work?). Also, in the case of e.g. the 3D Sierpinksi triangle there'd be structural issues (the voids would be fill with something), and you'd be up against entropy (there would be defects, so I'm not sure if it wouldn't just collapse) so it's really not much more than a thought experiment at this time. And, ultimately, what would be the point? Unless you can get novel electronic or mechanical effects etc. I'm not sure it'd be worth it.
shocks 13y ago
That was awesome, thank you for this video. The demoscene is inspiring.
- Patient0 13y ago
  You might find this page interesting too - goes into some detail on how it works: http://inst.eecs.berkeley.edu/~cs184/sp12/assignments/Archive/HW6/Fractal%20Renderer.htm http://inst.eecs.berkeley.edu/~cs184/sp12/assignments/Archiv... I'm itching to go try writing one now...
Retric 13y ago
We basically have nanobot's. The problem is unlike science fiction working at the atomic scale things don't react the same way. For example you can build a motor, but ATP or something close it it's going to be the fuel as heat engines don't really work. Which is why we end up using Bactria/viruses/plants/animals and simply overwrite their DNA. Granted we can get a lot better but don't expect anything to be both small and intelligent even the simplest chip is huge we compared to a virus.
sp332 13y ago
Insanely-high surface area materials exist, the best example I can think of is activated charcoal https://en.wikipedia.org/wiki/Activated_charcoal#Properties https://en.wikipedia.org/wiki/Activated_charcoal#Properties but batteries are using it too http://spectrum.ieee.org/nanoclast/semiconductors/nanotechnology/graphenebased-liion-anodes-go-commercial http://spectrum.ieee.org/nanoclast/semiconductors/nanotechno... "Solids" like you mention are aerogels https://en.wikipedia.org/wiki/Aerogel#Alumina https://en.wikipedia.org/wiki/Aerogel#Alumina and this new aerographite http://www.extremetech.com/extreme/133056-aerographite-six-times-lighter-than-air-conductive-and-super-strong http://www.extremetech.com/extreme/133056-aerographite-six-t...

mjfisher 13y ago

The thing I find most fascinating about tunnelling electron microscopes is those "ripples" you can see around the atoms. Because of the tunnelling effect that those microscopes rely on, they're actual manifestations of the electrons' quantum mechanical wavefunctions; the complex waves of pure probability that are - when you get right down to it - the best answer to the question "what is an electron made of?" Ripples in probability and a few associated numbers like mass, charge and spin; that's it. Nothing more. And you can actually see it in the video. Very, very cool.

bane 13y ago
Yeah, I was going to ask what those were. If that's the case, it was interesting to me that the waves appeared to manifest a bit like a standing wave, with regularly repeating, equally distanced, higher and lower probability/amplitude propagating away from the atomic groups. If that's correct, and electron probability wave functions mimic a standing wave, do different atoms have different standing wave frequencies? Does the resonance between different elements create any physical properties or predict anything...like what elements are likely to form a compound or the physical property of a compound?
- sp332 13y ago
  Yes, great insight! One of the reasons quantum mechanics is "quantized" (which means limited to certain discrete values instead of being continuous) is that standing waves are reinforced as particles move around. For example, the rotational frequency/energy of an electron is limited to integer multiples of the circumference of the orbit. The "particle-in-a-box" model is the name of this quantum model. https://en.wikipedia.org/wiki/Particle_in_a_box https://en.wikipedia.org/wiki/Particle_in_a_box
  - bane 13y ago
    ah, so is what we're seeing in some sense the energy state of the electron? Or is it some probability function of what state the electron might be in? I'm mentally trying to connect this image to modes of a vibrating string [1] 1 - http://hyperphysics.phy-astr.gsu.edu/hbase/waves/imgwav/strhar.gif http://hyperphysics.phy-astr.gsu.edu/hbase/waves/imgwav/strh...

jacquesm 13y ago

More atoms starring in movies by IBM (1977): http://www.youtube.com/watch?v=0fKBhvDjuy0 http://www.youtube.com/watch?v=0fKBhvDjuy0