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continual learning

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shako @shakoistsLog

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shako @shakoistsLog · 3h
agents are godlike at math, but can't update an invoice for a customer without fucking it up.

what does this tell us about reality? about humans?
[26 replies, 4 reposts, 199 likes, 7.9K views]

Tenobrus @tenobrus · 3h
imo something like..... general intelligence is very real and very powerful, but 1. domain specific intuition can get you *incredibly* far and 2. even very powerful general intelligence can be blocked by inherent lack of basic training and expertise in a domain
[3 replies, 38 likes, 1K views]

Sharmake Farah reposted
Tenobrus @tenobrus
imo a lot of what we think of as general intelligence is *capability to learn and acquire new skills*, and models do this exclusively ~offline or in context. if we had continual learning / ways to train intuition on the fly across multiple tasks invoices would look v different
11:12 AM · Aug 1, 2026 · 508 Views
Note from Claude Sonnet 5

Twitter thread discussing why AI agents can be extremely capable at formal domains like math while failing at mundane tasks like invoice updates, with replies proposing that general intelligence is real but bottlenecked by lack of continual/on-the-fly learning and domain-specific intuition.

ai capabilitiesagentsgeneral intelligencecontinual learningtwitter

@adi_baradwaj

Adi @adi_baradwaj · 6h "I've been fascinated by @RichardSSutton's approach to AGI with @oaklab_ai It's distinct from the other neolabs in a number of ways. As far as I can tell: - Zero pretraining, all learning is continual learning via RL at runtime - The system learns to extract features and define subproblems, computes intermediate value functions for these subproblems, and then updates the policy via value iteration - Feature discovery is done via generate-and-test (i.e. random search) or "Continual Backprop" which is basically backprop + generate-and-test Some open questions: - Having a good reward function is of course a huge part of the puzzle, and it's not clear to me if OaK has a good answer for this? - The press coverage claims that their goal is a 1-trillion-param agent that can learn and plan on 20W. Presumably this is just because it's an online algorithm with no pretraining, I don't see why the learning step itself would be any more energy efficient? - Unclear to me what function approximator they're using for the value function and how they're performing updates" [embedded image: slide titled "How OaK creates a subproblem from a feature i, κ" from a "Reinforcement Learning Conference" talk, showing bullet points defining i = feature number, κ = how intensely we want the feature (balanced against losing reward), the subproblem is to drive the world to a state where the feature is high without losing too much in terms of reward, "Find an option π, γ that maximizes the value of the ith feature at termination while respecting rewards and value", a math expression, and a photo of a speaker (older man in patterned shirt) at a podium. Caption on slide: "reward respecting subproblems of feature attainment"]
Note from Claude Sonnet 5

A technical tweet analyzing Richard Sutton's OaK (Options and Knowledge) architecture for AGI at his lab oaklab_ai, with an embedded lecture slide showing the mathematical formulation of subproblem creation.

reinforcement learningagi researchrichard suttonoak architecturecontinual learning

@AlexGDimakis

reposted by Mert Cemri

[Repost indicator] Mert Cemri reposted Alex Dimakis ✓ (@AlexGDimakis) — 5h I am very excited about this research: We show 2 things: 1. If you just do random sampling (i.e. you try to solve a problem k times independently, and keep the best) your ELO scaling will be linear in log(test-time-compute). Agents like Claude-Code and Codex scale like that after a few hours. 2. We compare human expert coders to coding agents on the same tasks (from AtCoder Heuristic Contest). The exciting finding is that humans scale super-linearly. This is evidence that humans do continual learning, while they are solving a problem! I.e. they learn more about the coding problem they are trying to solve and scale fundamentally better compared to randomly trying things in a memoryless fashion. This is empirical evidence that supports what many of us have felt for a while: unless we solve continual learning we will not be able to outperform humans in tasks that take many days. Current coding agents are not able to do this. > QUOTED: Qiuyang Mang ✓ (@MangQiuyang) — 9h > (1/n) New blog from UC Berkeley, UW, and Princeton: Who scales better in long horizon: AI coding agents or top coders? > We compared modern agents to top human ... > [Embedded chart: "Human vs Agent" — Y axis "Elo Rating" (1000–1800), X axis "time" (1h to 7d). Lines: "top10-humans" (dark blue, climbs steadily to 1853 at end), "top50-humans" (light blue, climbs to 1587), "Claude Code Opus-4.6" (orange dashed, sprints early to ~1348 by 24h then plateaus), "Codex GPT-5.5" (green dashed, flat near 1092). Annotations: "agents sprint early", "then plateau by 24h", "humans keep climbing for days".]
Note from Claude Sonnet 5

A research chart comparing long-horizon scaling of human coders vs. AI coding agents (Claude Code Opus-4.6, Codex GPT-5.5) on AtCoder Heuristic Contest tasks; humans show super-linear improvement over days while agents plateau by 24 hours.

ai capabilitiesbenchmarkscontinual learningcoding agentsresearch

Kenneth Stanley (@kenneth0stanl...), reposted by Machine Learning Street Talk

reposted by Machine Learning Street Talk

[repost icon] Machine Learning Street Talk reposted Kenneth Stanl... @kenneth0stanl... · 12h Difficulty achieving continual learning is also a bad omen for creativity: what you can imagine is naturally a function of what you can learn. Both are mediated by the adjacent possible to the same internal representations! Contorted algorithms (or the absence of clean options) for what should be simple and straightforward continual learning are therefore a hint that the large models they serve are creatively barren. That explains why something that is close to "knowing everything" and often competitive with the abilities of experts can still produce fewer breakthroughs than you would expect from a human with similarly astounding knowledge and expertise.
Note from Claude Sonnet 5

Kenneth Stanley (known for open-endedness/novelty-search research) argues that difficulty with continual learning in LLMs signals limited creativity, since imagination and learning share the same substrate of internal representations. Relevant to Nathan's interest in architecture/learning-dynamics questions (brain_graph_1) and to broader questions about what current LLMs are missing relative to humans.

continual learningcreativitymachine learningkenneth stanleytwitteropen-endednessllm limitations