> The Yes people are betting that, later this year, their counterparties (the No betters) will want cash (to bet on other markets), and so will sell out of their No positions at a higher price.
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> The Yes people are betting that, later this year, their counterparties (the No betters) will want cash (to bet on other markets), and so will sell out of their No positions at a higher price.
- I wonder if the "move" action is difficult for the model to learn to use well. The model sees token location as positional encodings in the embedding, not sparse character offsets. Would be interesting to see something more like "jump to next/previous [token or set of tokens]". Or maybe a find/replace like most coding harness edit tools use?
- I'd move the exact training data generation details to an appendix. Could be summarized to improve the flow of the paper.
- https://github.com/gastownhall/gastown/blob/main/internal/fo...
https://help.openai.com/en/articles/20001106-codex-rate-card
In theory, RLVR should encourage less error-prone code, similar to a human getting burned by production outages like the article mentioned. Maybe the scale in training just isn't big enough for that to matter? Perhaps we need better benchmarks that capture long-term issues that arise from bad models and unnecessary complexity.
Does it support running a test multiple times to get a probability for a single commit instead of just pass/fail? I guess you’d also need to take into account the number of trials to update the Beta properly.
I wonder how much of the improvement is due to the agent actually learning new things vs. reaching parts of its latent space that enable it to recall things it already knows. Did the agent come up with novel RL reward design protocols based on trial and error? Or did the tokens in the environment cause it to "act smarter"?
Sounds like the massive price disparity more than makes up for any accuracy issues
This has helped me a lot. Normally I'd feel really attached to big refactors because of sunk costs, but when AI does a huge refactor it's easier to honestly decide that it wasn't worth it and unnecessarily increased complexity.
This part confused me, it sounded like they were only doing the MCTS at train time, and then using GRPO to distill the MCTS policy into the model weights. So wouldn’t the model still have the same inference cost?
I guess agent isn't the best term here since the LLM wouldn't be driving the logic in the daemon. Using an LLM to select which item to add to the cart would mimic the behavior of full agentic loop without the risk of it going off the rails and completing the purchase.
If you let OpenClaw access the daemon, sure it could still get prompt injected to add a bunch of things to your cart, but if the daemon is properly segmented from the OpenClaw user, you should be pretty safe from getting prompt injected to purchase something.
[0]: https://www.nber.org/system/files/working_papers/w34255/w342...
I could have one function that pulls the wallet balance for all users, and then passes it to a pure function that returns an object with flags for each user indicating what action to take. Then another function would execute the effects based on the returned flags (kind of like the example you gave of processing a pending charges table).
The value of that level of abstraction is less clear though. Maybe better testability? But it's hard to justify what would essentially be tripling the lines of code (one function to pull the data, one pure function to compute actions, one function to execute actions).
Additionally, there's a performance cost to pulling all relevant data, instead of being able to progressively filter the data in different ways depending on partial results (example: computing charges for all users at once and then passing it to a pure function that only bills customers whose billing date is today).
Would be great to see some more complex examples of "functional core imperative shell" to see what it looks like in real-world applications, since I'm guessing the refactoring I have in my head is a naive way to do it.