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My understanding is that a lot of the molecular interactions involved become exponentially complex to model using classical computers --- so this would be one o
by c54 10y ago
My understanding is that a lot of the molecular interactions involved become exponentially complex to model using classical computers --- so this would be one of the major new areas of exploration with quantum computers.
People I've spoken with in the industry are excited about simulating fertilizer synthesis processes (which are super energy inefficient the way we do it at scale, but are theoretically much cheaper to perform, since anaerobic bacteria do it in the soil at normal temperature and pressure)
And also excited about simulating battery design -- being able to test millions of molecules without actually having to make a battery.
Of course, these are the early-stage speculative things, I'm sure more fancy nanotech could be explored with quantum computers as well.
http://blogs.microsoft.com/next/2015/11/13/with-quantum-computing-simulator-microsoft-offers-a-sneak-peek-into-future-of-computing/ http://blogs.microsoft.com/next/2015/11/13/with-quantum-comp...
- westoncb 10y agoPart of why I was interested in the idea is that it seems like what's being done in the article deals with vastly smaller numbers of molecules than what traditional chemical simulations would be targeted at. Some of the discussed 'machines' are comprised of just a few molecules, and I imagine the more complex ones are still under 1000. So as long as the software was specialized for this application, it seems like it would be feasible on classical computers.