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Herbie Bradley's avatar

Great post! I agree with the obvious need here, but two points:

1. If tacit knowledge and niche data for *economically valuable tasks* becomes more and more valuable due to its scarcity, then companies possessing this data increasingly have the advantage in negotiations with labs. I don't think realistically most large enterprises with this kind of data will agree to anything other than ZDR, and if they have even a whiff that labs are trying to hack their way around this they will switch vendors in many cases. Fundamentally they shouldn't do so either! It's against their interests in a lot of scenarios. This is exactly why the publishers who made deals with OAI to train on their data in 2023/2024 have now in many cases regretted the deal, because they now value that data much more highly (rationally).

2. There is an obvious solution to these issues: just make models which are capable of learning from deployments once "released from the nest", training on the job to learn from private data *within* the environment of the data owner, without any accrual to the lab originating the model. Better generalisation would also reduce the need to collect data from many sources on the same topic.

Overall I think it's better for the world if the incentives shift in this way, and labs are forced to make breakthroughs in generalisation/sample efficiency/continual learning to continue to grow model performance and thus revenue—rather than trying to convince companies to arguably act against their interests by commoditizing their edge.

ajit rajasekharan's avatar

Thank you for this thoughtful piece. Granting your premise that the token/param ratio stalls without more data, I'd just widen the escape routes a bit — there seem to be three, not one.

We either learn to need less data (biology hints it's possible — a fruit fly avoids an odor after a single shock pairing, so our data hunger may be an architecture artifact, not a law), unlock the siloed stuff that already exists (your collection thesis — e.g. healthcare and other private lakes), or generate genuinely new grounded data through simulation of physical/biological systems, where the simulation is the new measurement rather than synthetic text a model can't exceed itself with (one could safely say that even a model with "high temperature" output — btw, that was a great tweet — can only stray so far from where its training data sits).

On that third route, a caution aimed not at you but at the broader chatter: people keep claiming models are close to "cracking science." Solving an unsolved math problem like the recent unit-distance progress is real, but it leans on an abundant, digitized literature. Predicting what actually happens inside a cell is a different game precisely because that data is sparse — you can't simulate your way out of a domain you don't yet understand well enough to model. Which is really just your coverage point, pushed one level down.

Hard to say which route dominates, but at this point I'd bet all three matter — and they will regardless of whether we end up calling the result AGI or ASI.

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