Guillaume Verdon

So how do you capture information from the real world in superposition and not destroy the superposition but digitize for a quantum mechanical computer? information from the real world.

So how do you capture information from the real world in superposition and not destroy the superposition but digitize for a quantum mechanical computer? information from the real world.

So how do you capture information from the real world in superposition and not destroy the superposition but digitize for a quantum mechanical computer? information from the real world.

And so if you have an ability to capture quantum information and search over learned representations of it, now you can learn compressed representations that may have some useful information in their latent representation, right? And I think that many of the problems facing our civilization are actually beyond this complexity barrier. I mean, the greenhouse effect is a quantum mechanical effect.

And so if you have an ability to capture quantum information and search over learned representations of it, now you can learn compressed representations that may have some useful information in their latent representation, right? And I think that many of the problems facing our civilization are actually beyond this complexity barrier. I mean, the greenhouse effect is a quantum mechanical effect.

And so if you have an ability to capture quantum information and search over learned representations of it, now you can learn compressed representations that may have some useful information in their latent representation, right? And I think that many of the problems facing our civilization are actually beyond this complexity barrier. I mean, the greenhouse effect is a quantum mechanical effect.

Chemistry is quantum mechanical. You know, nuclear physics is quantum mechanical. A lot of biology and protein folding and so on is affected by quantum mechanics. And so unlocking an ability to augment human intellect with quantum mechanical computers and quantum mechanical AI seemed to me like a fundamental capability for civilization that we needed to develop.

Chemistry is quantum mechanical. You know, nuclear physics is quantum mechanical. A lot of biology and protein folding and so on is affected by quantum mechanics. And so unlocking an ability to augment human intellect with quantum mechanical computers and quantum mechanical AI seemed to me like a fundamental capability for civilization that we needed to develop.

Chemistry is quantum mechanical. You know, nuclear physics is quantum mechanical. A lot of biology and protein folding and so on is affected by quantum mechanics. And so unlocking an ability to augment human intellect with quantum mechanical computers and quantum mechanical AI seemed to me like a fundamental capability for civilization that we needed to develop.

So I spent several years doing that. But over time, I kind of grew weary of the timelines that were starting to look like nuclear fusion.

So I spent several years doing that. But over time, I kind of grew weary of the timelines that were starting to look like nuclear fusion.

So I spent several years doing that. But over time, I kind of grew weary of the timelines that were starting to look like nuclear fusion.

So a quantum computer really is a quantum mechanical system over which we have sufficient control and it can maintain its quantum mechanical state. And quantum mechanics is how nature behaves at the very small scales when things are very small or very cold. And it's actually more fundamental than probability theory.

So a quantum computer really is a quantum mechanical system over which we have sufficient control and it can maintain its quantum mechanical state. And quantum mechanics is how nature behaves at the very small scales when things are very small or very cold. And it's actually more fundamental than probability theory.

So a quantum computer really is a quantum mechanical system over which we have sufficient control and it can maintain its quantum mechanical state. And quantum mechanics is how nature behaves at the very small scales when things are very small or very cold. And it's actually more fundamental than probability theory.

So we're used to things being this or that, but we're not used to thinking in superpositions because, well, our brains can't do that. So we have to translate the quantum mechanical world to, say, linear algebra to grok it. Unfortunately, that translation is exponentially inefficient on average. You have to represent things with very large matrices.

So we're used to things being this or that, but we're not used to thinking in superpositions because, well, our brains can't do that. So we have to translate the quantum mechanical world to, say, linear algebra to grok it. Unfortunately, that translation is exponentially inefficient on average. You have to represent things with very large matrices.

So we're used to things being this or that, but we're not used to thinking in superpositions because, well, our brains can't do that. So we have to translate the quantum mechanical world to, say, linear algebra to grok it. Unfortunately, that translation is exponentially inefficient on average. You have to represent things with very large matrices.

But really, you can make a quantum computer out of many things, right? And we've seen all sorts of players, you know, from neutral atoms, trapped ions, superconducting, metal, photons at different frequencies, I think you can make a quantum computer out of many things.

But really, you can make a quantum computer out of many things, right? And we've seen all sorts of players, you know, from neutral atoms, trapped ions, superconducting, metal, photons at different frequencies, I think you can make a quantum computer out of many things.