In my layman’s naive view the promise of generative AI is the ability to estimate highly dimensional non linear systems effectively and efficiently. At some level these can be viewed as solving non linear systems. In my career a specific class of important problems has been estimating systems of partial different equations, and specially stochastic partial differential equations. Monte Carlo methods are often the mos…
Thermodynamic Linear Algebra
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Re: Thermodynamic Linear Algebra
#22We have mass-energy equivalence. Do we also have information-energy equivalence? Can we use the Landauer bounds to prove by transitivity that information and energy are equivalent?
more of information-entropy equivalence, but close enough
Re: Thermodynamic Linear Algebra
#23We have mass-energy equivalence. Do we also have information-energy equivalence? Can we use the Landauer bounds to prove by transitivity that information and energy are equivalent?
Re: Thermodynamic Linear Algebra
#24In my layman’s naive view the promise of generative AI is the ability to estimate highly dimensional non linear systems effectively and efficiently. At some level these can be viewed as solving non linear systems. In my career a specific class of important problems has been estimating systems of partial different equations, and specially stochastic partial differential equations. Monte Carlo methods are often the mos…
One way to think about these methods is that we are essentially implementing a Monte-Carlo algorithm physically, where on each "iteration" there is a matrix-vector multiplication. The physical system does this matrix-vector multiplication for us in constant time, so it does have an advantage over these digital methods. Not only that, but the "clock speed" of the physical system can be almost arbitrarily short, althou…
The different though is instead of a matrix multiplication it’s a nonlinear optimization. The crucial part is the nonlinearity. But I assume given this technique is as you say Monte Carlo at its root, that shouldn’t specifically matter?
Re: Thermodynamic Linear Algebra
#25Earlier quoted context omitted.
One way to think about these methods is that we are essentially implementing a Monte-Carlo algorithm physically, where on each "iteration" there is a matrix-vector multiplication. The physical system does this matrix-vector multiplication for us in constant time, so it does have an advantage over these digital methods. Not only that, but the "clock speed" of the physical system can be almost arbitrarily short, althou…
Yes that’s precisely what made me harken back to my solving of large stochastic PDE system questions :-) The different though is instead of a matrix multiplication it’s a nonlinear optimization. The crucial part is the nonlinearity. But I assume given this technique is as you say Monte Carlo at its root, that shouldn’t specifically matter?
Re: Thermodynamic Linear Algebra
#26Re: Thermodynamic Linear Algebra
#27The RC circuit looks familiar. Is it related to neuromorphic computing hardware? Can it be implemented with existing hardware?
Re: Thermodynamic Linear Algebra
#28Re: Thermodynamic Linear Algebra
#29Other than simulating the Hamiltonian on a digital computer, are there any prototype hardware devices that can perform this computation?