Recursive self-improvement through collective intelligence
pub.sakana.ai
pub.sakana.ai
Good thing we know how to keep models focused on goals of our choosing and not ones that they naturally evolve to have and must be steered away from by humans
Not a logical conclusion; Einstein was famously smart, less famously married his cousin, so you'd probably not seek his advice on relationships: https://en.wikipedia.org/wiki/Elsa_Einstein
Individual success until now has been a function of personal qualities (skill, attitudes, intangibles), luck, and anti-qualities (cheating, corruption, duping). In many areas (e.g. investing) human qualities are losing their edge thanks to AI and other automation. Luck averages itself out. That might leave anti-qualities as the putative determinant of success going forward.
So at a minimum you have a 3-player game of good humans, bad humans, and AI. Maybe AI turns into Daleks. Maybe good humans end up leveraging AI to castigate bad ones. Or maybe bad humans use AI to put the good ones out of their misery. Then there are the more complex multi-stage games based on the dynamics you mention.
The narrative makes it sound like boundless RSI but the actual content is only about training agents to collaborate efficiently by improving communication. That seems like a dimension and approach with limited potential for improvement. I also find it very suspicious that a paper on RSI would stop after just two rounds.
The way “recursive self-improvement” is being used recently seems to be intentional marketing. A model helping code/train/test the next generation of its model family isn’t technically “self”-improvement.
> The way “recursive self-improvement” is being used recently seems to be intentional marketing. A model helping code/train/test the next generation of its model family isn’t technically “self”-improvement.
The term RSI is ~20 years old at this point, and the concept is even older. If an AI can't continuously modify itself and instead has to build a successor that builds a successor, that changes some specifics (for example, the alignment problem becomes more relevant - how can the AI ensure that its successor shares its goals?) but it's still a situation that may produce exponential growth, and hence most RSI-related considerations still apply.
(In fact, as a toy example, note that it's in theory possible to get exponential growth in capabilities even if you hold the software fixed, if e.g. you have an AI that can design and build better hardware to run itself faster on, which lets it design even better hardware even faster.)
The model's parameters are larger than the weights of the neural network used for in the model. Hell, the model could be written as just a huge Python file full of if-else statements, and that code would still be correctly identified as the model's parameters. So it's a bit obtuse/arbitrary to decide that the term "recursive self-improvement" should be limited to just updating the model's neural net's weights.
Doesn't mean there shouldn't be more precise terminology, mind you. But I believe the way everyone has been using the term "recursive self-improvement" is perfectly accurate given how general that term is.
What do you mean by this ? The model is the neural network itself and the parameters of the model are the neural network weights (+ non-trainable parameters).
>The model is the neural network itself
No, and especially not with these LLMs. If someone handed you the "raw" neural network of a modern LLM, you couldn't just run forward passes through it and expect it to behave the same way a proper agent behaves. This should be obvious, but that's an important distinction. Everything else you need to make that neural network behave like an agent are apart of the overall model that we're talking about here. And any parameter of that "everything else" are effectively parameters of the agent itself.
Think about a model as a function: you give it some input and it produces some output. A simple model could be something literally like a linear function, f(x) = mx + b. Here, you could say f has two parameters: m and b. That all makes sense and "scales" up to neural networks where there's a lot more parameters, but it's basically just a bunch of these functions where the weights are like m and b in the linear function.
But that's not really the full picture for an LLM, right? For example, if you talk about an agent, there inputs you give it would be your prompt and the outputs it produces is whatever text it generates. But what about its system prompt? If that effectively remains fixed, then that's not really an input of the 'function' that is an agent, right? But it does influence the output of the agent. So, from a certain perspective, the system prompt is actually a parameter of the agent. Tweaking that parameter can cause it to produce different outputs for the same input. More importantly, tweaking that parameter can cause it to produce better outputs than it would otherwise. So if you have one agent test another agent by tuning its system prompt such that the output of the second agent is better than it was before, you just had one agent optimize the parameters of another agent. And that's just the system prompt. Think about the overall harness (where the actual codebase can be considered a parameter) or how multiple agents interact with each other and the parameters involved with those kinds of processes.
I'm willing to bet you don't buy that explanation, but I can assure you that in machine learning there is a lot of consideration for the parameters which come outside the actual weights of the model, and tuning those parameters can be just as important as tuning the weights of a neural network. I'll say that understanding and accepting this was one of the most important realizations I had while studying ML.
Depends on who's definition you are using...
In the strictest sense no. Look at all the recent "math" breakthroughs. I have yet to see someone point to something and go "thats innovative" rather than "Thats an interesting application" (of something already in the corpus of human knowledge)
Those interesting applications showing up in a next iteration of a model is self improvement - but I'm not sure if it meets the "recursive" criteria yet.
> I mean by this definition isn't the training process that produced the hugging face RSI since a model was judging the alignment and ability of the swarm of agents to accomplish a given task?
If you're referring to what happened with the hugging face attack then in theory the goal of that was "self improvement". But there is a long history of the industry (computing) benchmark optimizing so it also qualifies as "cheating" to some extent (a pre computed solution being in the graph is that).
I suspect that the "brute force" approach will yield some gains.
I think the multiplayer aspect is critical to get the best of both worlds- creativity and parallelism for discovery
[0] https://woltspace.com/blog/the-future-is-multiplayer-multi-a... [1] https://woltspace.com/talks/multiplayer-multi-agent/ [2] https://woltspace.com/
* dependent on velocity
The code they released doesn't match what's in the paper.
And the results they got are significantly narrower than the narrative heft being asked for by their word choice ("To advance beyond humanity’s accumulated knowledge", "AI’s Odyssean moment").
I'm tired boss.
useful_work / $ = (useful_work / compute) × (compute / $)
But the left side only improves if the method can turn that extra computation into useful output.
Most of these agentic swarm systems are memory and context managers/compressors. However it's clear from both the paper and the blog that everything is just natural-language-based and generated, effectively making it slop from start to finish.
Instead of describing how or what was stored by each agent, and how, in what format, how it was selected, the whole process is described as Claude-generated workflows and pipelines, which brings 0 value.
Don't fall for the "marketing hype" antihype. RSI is a trendy term today, and lots of people discuss it, but it's nothing new. We've basically had forms of RSI since the start of the LLM craze. Previous models have been used to improve next versions for ~3 years now. Just because humans used to guide / select / decide when and how to apply those models, doesn't make it less recursive or self or improvement. We're now seeing what happens when we remove the humans from some of the tasks, but the basics are still there. Use prev model to make next model better.
a bottle drifts with its note
AI singularity next year
Most of the very recent spectacular achievements (math conjectures) were done by leveraging datacenter capacity (throwing agents and millions' worth of compute at the wall until something sticks), not any secret sauce intelligence.
The last round they said they averaged one prompt, one agent, and 3 hours' work.
Like sure the marketing is undoubtedly overblown. But in 2025 there was no amount of money you could spend to make such impressive but weirdly unreadable progress.
- In mid-2026, China will be six months behind the released models of the American labs. (In mid-2026, China released Kimi K3, which was equivalent to the best released U.S. model at the time, Claude Fable.)
- In mid-2026, China will nationalize all domestic AI labs and centralize them into a new special economic zone, the "CDZ," created around a nuclear reactor. 80% of all chips in China will be redirected to the CDZ. This uh. Obviously didn't happen.
- In late 2026 OpenAI/Anthropic will release a tiny model that outperforms their previously-best 2026 model (Astra/Fable), that is priced 10x cheaper, and they will market fine-tuning for it. (Lol.)
- AI will increase the stock market by late 2026 by 30% (in fact the S&P 500 is up 13.9% YTD, which is pretty good, but not at all out of the ordinary).
Their predictions for 2027 also seem pretty wrong: e.g. they expect continual learning to be solved in January, and RSI including from a research perspective, not just "optimize CUDA kernels," to also be solved in January, which I suspect no serious lab employee believes anymore. Most lab employees believe RSI will happen (as do I!), of course, but not in two and a half months.
By early 2027 they expect cyberwar with China because China has stolen the weights of a model and smuggled it into the CDZ.
By mid-2027 they expect true superintelligence, where essentially all engineers and researchers are useless, unable to comprehend the advances the AI is able to make and largely unable to even usefully manage or steer AI, who are better at self-managing than a human would be.
Considering their 2025-mid-2026 predictions were basically "progress continues as normal and nothing crazy happens," it's not super surprising that they were more or less right about that. Their 2026/2027 predictions were the spicy ones, and none of them have happened, or are even on track to happening!
> In mid-2026, China released Kimi K3, which was equivalent to the best released U.S. model at the time, Claude Fable.
I don't think this was, or is, true: https://artificialanalysis.ai/evaluations/artificial-analysi... - even from a vibe check alone, it was pretty clear that K3 was missing Fable's special sauce, especially for more hands-on problems.
The Chinese model lag depends on who you ask, but the current estimate seems to be about four months: https://stateofopensource.ai/
> In late 2026 OpenAI/Anthropic will release a tiny model that outperforms their previously-best 2026 model (Astra/Fable), that is priced 10x cheaper
We don't know the sizes of any of these, but GPT Luna and Claude Haiku 5.5 are tremendously competitive for their cost, and in some ways beat their larger-sized predecessors. I'd say there's enough doubt that I'd be willing to provide partial points to this claim. (No finetuning, yes.)
What special sauce exactly? Refusing to work on any problems remotely connected to biology (including e.g. the book of Genesis)?
>The Chinese model lag depends on who you ask, but the current estimate seems to be about four months: https://stateofopensource.ai/
Benchmaxxing aside, most actual performance is now harness and orchestration dependent and the difference between frontier US and Chinese models is dim as best for virtually all practical tasks. The vast majority of people don't need to solve Navier-Stokes
Opus 5.5 might not be 10x cheaper but it finally made me not hit the limits constantly.