The fact this prize exists is admitting that no one has figured out a use for quantum computers. I have heard this mentioned several times in the last decade or so : "The only thing a quantum computer definitively does better than a classical computer is simulating a quantum computer." Whether this capability is useful is up in the air. Note that in practice, classical computers are going to be better at factoring nu…
"better". There currently isn't a practical way to brute force factor a 4k rsa key with classical computing. doesn't shor's algorithm on a quantum computer make that feasible? that would be a big driver for quantum computing though maybe my understanding is off.
Google Quantum AI
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Re: Google Quantum AI
#62Quantum AI running self driving cars in the blockchain cloud, social VR controlled. Experience our agile experience powered with renewable big data. Gamifying the digital transformation of tomorrow!
Re: Google Quantum AI
#63Quantum AI running self driving cars in the blockchain cloud, social VR controlled. Experience our agile experience powered with renewable big data. Gamifying the digital transformation of tomorrow!
Don’t forget the tracking and ads!
Re: Google Quantum AI
#64Re: Google Quantum AI
#65The fact this prize exists is admitting that no one has figured out a use for quantum computers. I have heard this mentioned several times in the last decade or so : "The only thing a quantum computer definitively does better than a classical computer is simulating a quantum computer." Whether this capability is useful is up in the air. Note that in practice, classical computers are going to be better at factoring nu…
And, hopefully, other quantum systems in general!
I can see that helping with material science. That can have huge multiplier effects on the rest of the economy.
But I agree with you, that other serious applications of quantum computers seem to be thin on the ground.
Re: Google Quantum AI
#66The fact this prize exists is admitting that no one has figured out a use for quantum computers. I have heard this mentioned several times in the last decade or so : "The only thing a quantum computer definitively does better than a classical computer is simulating a quantum computer." Whether this capability is useful is up in the air. Note that in practice, classical computers are going to be better at factoring nu…
The big one is simulation of quantum systems, I don’t get how that’s not enough by itself? Classical computers will never be able to simulate quantum systems efficiently so we need quantum computers for that. In general achieving arbitrary precision control of quantum states is something that will open avenues in many areas like sensing as well, so just from that angle alone a working quantum computer would open a ne…
And developing new materials.
Re: Google Quantum AI
#67The fact this prize exists is admitting that no one has figured out a use for quantum computers. I have heard this mentioned several times in the last decade or so : "The only thing a quantum computer definitively does better than a classical computer is simulating a quantum computer." Whether this capability is useful is up in the air. Note that in practice, classical computers are going to be better at factoring nu…
Wouldn't the D-Wave kinda-but-not-really quantum computer that came out a decade ago be ideal for AI? Annealing sounds like exactly the kind of problem that needs to be solved for ML training?
Re: Google Quantum AI
#68Earlier quoted context omitted.
From Feynman's 1982 talk on quantum computing: "[N]ature isn't classical, dammit, and if you want to make a simulation of nature, you'd better make it quantum mechanical, and by golly it's a wonderful problem, because it doesn't look so easy." 0. https://s2.smu.edu/~mitch/class/5395/papers/feynman-quantum-...
You can simulate quantum mechanics with classical computers pretty well, as long as you stick to the copenhagen interpretation.
Re: Google Quantum AI
#69Earlier quoted context omitted.
You can simulate quantum mechanics with classical computers pretty well, as long as you stick to the copenhagen interpretation.
Feynman's lecture explains why classical computers are terrible at simulating quantum systems. The basic problem is that the number of states grows exponentially with the size of the system. You very quickly have to start making approximations, and it takes an enormous amount of classical computing power and memory to handle even relatively small systems.
However, quantum computers also have to deal with noise and errors. So far, that's not very different.
(If we manage to build error-correcting quantum computers, that might change.)