Everything Anima Anandkumar said on any show that made the record, most notable first. Each card names its show and opens the statement there.
Anandkumar: Multi-physics models outperform single-physics models of equivalent parameter size
“And in fact, I was going to add that it turns out that having the model of the same size with multiple areas of physics does better than giving all of those parameters to each single physics. So if you had separate models and made them big enough as the origin…”
Anandkumar: Standard Transformers cannot scale to 5-trillion context lengths for physics
“On the other hand, if you think about using transformer architectures that have worked so well for language, that just wouldn't be able to support a five trillion context length. No matter all the compute in the world is thrown at it. So that kind of quadratic…”
Anandkumar: Dense physics feedback enables better AI self-improvement than sparse LLMs
“And the difference there is compared to language where self-improvement needs something like human feedback or other reward signals that are very sparse. They just tell you yes or no, thumbs up or down. We have dense feedback because the physics laws, there's …”
Transformers will never scale to high-resolution 4D physics simulations
“So forget ever having a transformer for anything of this scale. All of the world's compute will not be enough. And first of all, they all have to be co-located to be able to ever do this. So that's why we need other architectures.”
Neural operators are the only AI architecture that works for climate emulation
“This is where the Allen AI Institute has now built climate models based on our neural operator architecture. And that's the only one that works As an AI emulator, right? None of the other architectures work for climate because climate requires us to assume the…”
AI models predict fusion reactor plasma disruption one million times faster
“You know, I talk about plasma and fusion reactor. You know, we barely have a few thousand samples, but we are able to accurately predict events like disruption very well. And we are able to do that a million times faster than what traditional simulations were …”
Anandkumar: Purely data-driven AI fails at physical simulation without physics laws
“And so this reliance on just purely data-driven AI is not going to be enough. And that's where, you know, adding the loss of physics is really critical.”
Anandkumar: Neural models capture shared mathematical features across disparate physics domains
“So there's implicitly a lot of common features, even across physics that are gone by different equations. So that's how you see across different domains, across different mathematical models. There's a lot of Shared features that these neural models can pick u…”
Physics-Informed Neural Networks fail on chaotic, time-dependent differential equations
“Optimization ends up being usually very difficult, especially for problems that are time-dependent, meaning it's not just stationary, you also have time, and the time component in many cases could be turbulent, like in the case of fluid dynamics, you know, you…”
Neural operators can evaluate at arbitrary resolutions at inference time
“Neural operators enable because they model inputs and outputs as continuous functions that can be infinitely resolved, that can have infinite discretization. And now we can have You know, at inference time, you can give it now inputs and ask for outputs at any…”
Physics constraints enable neural operators to exceed training data resolution
“If you now give it the model additional information in terms of, let's say, a physical loss, so you could give it partial differential equation constraints, conservation laws, and you can now enforce them at a finer resolution than the data you have, then ther…”
Fourier neural operators scale quasi-linearly, avoiding transformers' quadratic complexity
“If we were to use transformers and we require a very high resolution, it would become untenable because of the quadratic complexity and all to all connections. On the other hand, if you did that with Fourier transforms, we have like quasi linear complexity and…”
FourCastNet matches supercomputer weather accuracy 10,000 times faster on consumer GPUs
“To our surprise, we found that it's not only, you know, accurate, it's almost as close to the what the traditional weather models can do accurately, but also tens of thousands of times faster. So what would take a big supercomputer to run can now be run. And w…”
FourCastNet predicted Hurricane Lee's landfall days earlier than standard weather models
“For instance, our forecast net was able to correctly predict that the hurricane making the landfall several days earlier compared to the standard weather forecasting models.”
Spherical AI weather models achieve longer autoregressive rollouts than flat models
“These models that we have are able to do the longest rollouts compared to any of the other weather models that completely ignore spherical assumption and a range of other things.”
FourCastNet models trained on six-hour steps produce stable months-long forecasts
“To predict for the next six hours. And a little bit of multi-step fine tuning... Now we are showing for several months that it's able to do that.”
Purely data-driven AI approaches are saturating in physical scientific discovery
“A lot of data, purely data driven approaches in a way seeing saturation, right? So now we want to ask, okay, either make them more hardware efficient, right? There's a lot of now room to kind of say, can we now, you know, make them much more energy efficient o…”
Regulating AI for science like large language models creates serious problems
“A lot of regulatory frameworks equate AI with language models and Yes, language models can, you know, manipulate people, can have all these kinds of harmful impacts that we should think about controlling, but AI for science is different. So I think this one si…”
Anandkumar: Accelerated Understanding is building universal foundation models for physical simulation
“You know, that universality and scale that we've seen play out for language, what is that counterpart for the physical world? And that's the bet that accelerated understanding is making.”
Anandkumar: Existing video and vision world models incorrectly assume fixed resolutions
“That immediately distinguishes us from other so-called world models, whether it's video models, vision models, they all assume during training and inference, it's a fixed resolution.”
Anandkumar: Neural operators mix physical scales internally to boost data efficiency
“Neural operators have this flexibility because they can allow you to mix across different scales within the model rather than be prescribed externally like a lot of other Hybrid machine learning for physics do, and that, you know, allows us to be a lot more da…”
Anandkumar: Scientific AI Bottleneck Is Real-World Testing, Not Hypothesis Generation
“Yes, you can do a lot of hypothesis generation. You can have ideas, but ideas are not enough, right? So you can have a lot of ideas. The bottleneck is going, testing, and verifying that they work in the real world.”
Lean faces CPU-bound scalability limits for verifying large neural networks
“So lean still has a lot of shortcomings there. It's CPU based and you know, it's not, Like, getting that onto the GPU has a lot of nuances there. So, you know, a lot of work needs to be done. So what we've started with is a framework, you know, making that mor…”
Neural operators overcome PINN limitations by combining data with physics constraints
“Our idea of neural operators came as a way to overcome this, right? So saying, you know, we can't rely just on physics constraints alone to come up with answers. We have lots of data available. You know, I'll talk about the weather example where we even collec…”