🥤: arxiv.org/abs/2412.00568
🚤: arxiv.org/abs/2310.02994
🥤: arxiv.org/abs/2412.00568
🚤: arxiv.org/abs/2310.02994
With The Well, ML researchers can tackle advanced physics, and simulation experts explore efficient surrogates. Imagine predicting the explosion of supernova in seconds! 🌠
Let’s accelerate scientific discovery together!🤝
With The Well, ML researchers can tackle advanced physics, and simulation experts explore efficient surrogates. Imagine predicting the explosion of supernova in seconds! 🌠
Let’s accelerate scientific discovery together!🤝
🧠 Unique benchmarks (spatial-temporal patterns ≠ natural videos)
📐 Many knowledge transfer tasks
⏳ Handling temporal variation
⚙️ Generalizing across physical parameters
This is an opportunity to advance scientific research with ML! 🚀
🧠 Unique benchmarks (spatial-temporal patterns ≠ natural videos)
📐 Many knowledge transfer tasks
⏳ Handling temporal variation
⚙️ Generalizing across physical parameters
This is an opportunity to advance scientific research with ML! 🚀
Unlike natural datasets, scientific data is hard to gather & interpret. Evaluating a turbulent astrophysical process isn’t like judging a cat photo! 🐱
We standardized complex scientific datasets to let ML researchers focus on what matters: predicting physics. 📈
Unlike natural datasets, scientific data is hard to gather & interpret. Evaluating a turbulent astrophysical process isn’t like judging a cat photo! 🐱
We standardized complex scientific datasets to let ML researchers focus on what matters: predicting physics. 📈
Introducing The Well: 16 datasets (15TB) for Machine Learning, from astrophysics to fluid dynamics and biology.
🐙: github.com/PolymathicAI...
📜: openreview.net/pdf?id=00Sx5...
Introducing The Well: 16 datasets (15TB) for Machine Learning, from astrophysics to fluid dynamics and biology.
🐙: github.com/PolymathicAI...
📜: openreview.net/pdf?id=00Sx5...