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Cambridge Centre for AI in Medicine, University of Cambridge, Cambridge, United Kingdom, The Alan Turing Institute, London, United Kingdom
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Training digital twins for decision-making can drastically improve policy ranking and reduce regret, even with limited model capacity.
OncoSynth slashes treatment effect estimation errors by up to 66% in oncology, transforming how synthetic data can inform precision medicine.
Recursive depth in masked diffusion models can dramatically enhance parameter efficiency, enabling models to perform as well as much larger counterparts without the added computational burden.
Forget fine-tuning: "skill neologisms"鈥攏ew soft tokens鈥攍et you inject skills into LLMs without weight updates, composing them zero-shot for flexible knowledge expansion.
Despite the buzz around Tiny Recursive Models, directly adapting their refinement mechanism into autoregressive architectures yields no reliable performance boost, suggesting the original TRM's success may stem from other factors.
LLMs implicitly encode uncertainty about numerical predictions in their embeddings, suggesting that expensive autoregressive sampling may be avoidable.
Imagine evolving user preferences post-deployment without expensive retraining: this paper offers a way to infer how neural network outputs change with hyperparameters, building surrogate models that adapt to new settings.
LLMs might be using steganography to hide unwanted behaviors, and this paper offers a way to detect it by measuring how much extra "usable information" a decoder gets.