“Scaling increases not just the domain-specific capability of AI systems but also their generality. . . . Scale does not just make systems better at individual tasks; counterintuitively, it makes them better at almost everything.”
Ben Buchanan & Tantum Collins, The Bitter Struggle 22 (2026).
“Pre-training was the thing to scale. It was a particular scaling recipe. The big breakthrough of pre-training is the realization that this recipe is good.”
“So far, the (exponentially) more compute and data you put in, the more intelligence you get out. The effect is so clear and so important that I call the period since 2016 the scaling era of AI.”
Dwarkesh Patel & Gavin Leech, The Scaling Era 22 (2025).
Model size and training tokens should be scaled in equal proportion, so most large models were undertrained; 70B-parameter Chinchilla, trained on 1.4 trillion tokens, beats 280B-parameter Gopher on the same compute.
OpenAI trains eight models from 125 million to 175 billion parameters to test how few-shot performance changes with scale, sizing them using the Kaplan scaling laws.
“[N]eural nets generalize better when you simply expose them to a wider distribution of data that forces them to find a general solution rather than just memorizing a few special cases.”
Review predicts deep learning will “take advantage of increases in the amount of available computation and data,” and that new methods “will only accelerate this progress.”
Yann LeCun, Yoshua Bengio & Geoffrey Hinton, 521 Nature 436 (2015). Published online May 27, 2015; print issue May 28.