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<i>This list is based on a </i><a target="_blank" href="https://x.com/bayeslord/status/2062605149735129594" color="blue">thread</a> <i>I posted on June 4th. A few edits and additions here and there. Several people asked me to make the thread easier to read, so here it is.</i>


## Intelligence

1. I think people are going to be blindsided by algorithmic progress. The entire world, markets, governments, militaries, companies, people, etc. are all trying to make sense of AI and its impact in terms of the recent pastās production efficiencies and regularities, and how things appear to be going. Even several of the purportedly āRSIāpilled neolabs seem to think this will be business as usual but with Agent in a loop. No. My guess is there are many algorithmic OOMs left to go in the production of intelligence, maybe (maybe) up to ten, with four to seven seeming more likely. Going beyond even ten is possible in principle, but it strains hard against what I suspect the universe will actually let us do. Implausible but not impossible. If this is true then things arenāt actually going as they appear to be going and a big jump is coming. Anything along these lines happening would make things, far weirder than almost anyone seems to be pricing in.

1. We are in early takeoff. AI improving AI may end up being one of the most consequential steps of history. This isnāt certain because we donāt know how far from the physical and computational limits of intelligence we are, though I would bet itās quite far from where we are today (as I said above, ~4-10 OOMs more intelligence output per unit of scale seems possible).

1. Now that weāre in takeoff, algorithmic research is accelerating. Compute is still a scarce resource, but researcher-time opportunity costs are lower because you can just send an agent on any quest or wild goose chase. It might come back with something. All new ideas come with optimization debt that can now be paid in unsupervised token spend. Vast numbers of research scaling law curves will be traversed.

1. AI models, especially the frontier, will keep getting better. The only true wall is physics. Models are increasingly autonomous, smart, and are getting better all the time. Math and code are falling to scale+RL, everything else is up next. Verifiable vs. non-verifiable as a meaningful distinction will fade. Automated AI research and AI learning are going to look more and more related as we go forward. Training models well is closely related to models learning well in general. Sample efficiency, creativity, and all other limitations will be solved and then start approaching algorithmic optimality at whatever scale.

1. The idea that long horizon agents always need equivalently long horizon training is wrong because generalization in time exists. Long tasks are not made of longness! This is related to LeCunās fallacy of (1-e)^n error accumulation. Whatās actually going on is error correction. This happens at multiple scales from the single token generation level up to steps in a long task. Part of the reason the METR graph goes up is that agents are starting to hit error correction escape velocity.

1. An engineering-grade science of deep learning is imminent. This will drive us to AI algorithmic maturity much more rapidly than people are expecting, though as I mentioned above itās not clear how far this can go even in principle. For example, a science of scale-invariance dramatically increases the scale and returns of useful experimentation because experiments on one GPU can tell you how to use one hundred thousand.

1. There will be Move 37 moments for every domain of technical human endeavor and then, quite quickly, Move 37s will seem quaint. I mean for everything.

1. Compute is going to keep improving. Todayās best matmul machines are nowhere near the physical limits of AI accelerators. Thereās a lot of room to get better at digital silicon. There are also many candidates for new substrates, and the algorithmic debt they owe will be automated to its limits, but we donāt yet know what the optimal one is for AI in space/energy/time/manufacturability/cost. Photonics and stochastic silicon are both interesting candidates, but I also expect the singularity to be surprising.

1. How far ahead the labs can get depends in part on the returns to automation and scale, which includes the returns to greater algorithmic depth. If deep learning practice (and theory) is forever shallow then the moat will mostly not be algorithmic on the longer term because secrets will be relatively cheap to discover. Eventually distillation + data + time can catch up to compute scale, potentially slowly. So far this seems partly where weāre at, but even if true there are no guarantees it will continue this way.

1. If things become less shallow as we scale then every increment of automation and scale buy you algorithmic secrets that are increasingly out of reach for anyone else. This too seems partly where weāre at. The end point in either case is when marginal utility returns to scale and research saturate. We donāt know where that is. Could be 2 OOMs or 20 away from where we are today. No one knows.

## The intelligence supply chain

1. Compute will be a highly contested resource for at least a few years. But in that time it will start commoditizing and we will laugh at the impoverished 2020s. Scale is increasing and working, capital is following to turn the wheel again and again. More matmul machines, more fabs and more energy are coming. Bottlenecks of intelligence production are temporary. Potential economic speed bumps notwithstanding.

1. The nature of the intelligence supply chain is changing. Right now itās very centralized around labs. But labs are automating the main thing that makes them good: researchers and the discovery of algorithmic advantages. Once this starts happening, assuming open source trails not too far behind, and especially if the labs donāt lock down AI researcher models, the labsā advantages will come from easier capital, having more compute, having special data, business relationships, and good products. This does depend on how the algorithmic depth point above resolves, among other things.

1. Distributed training will reduce the need for monolithic datacenter buildouts, offering some advantage to non-hyperscalers. This wonāt outpace hyperscalers in pure single largest run scale terms, though.

1. Automated AI experimentation will enable widespread discovery of algorithmic secrets as these are naturally more distributable than full-scale training runs. Itās unclear how far this can go but I expect pretty far. As mentioned above the fundamental depth of deep learning is still unknown and the upper bounds on this point depends on that.

1. Itās possible that despite these forces apparently in its favor academic and open source will languish because of the cost and opportunity cost of compute. E.g. are GB300s more valuable serving GLM5.2, or Fable? Is it more valuable doing non-frontier research in some academic lab or building Mythos 2 inside of Anthropic? The market will solve for where demand is greatest, which right now does seem to be the labs. This means that open source labs could become even more compute starved *even if they have capital*, if they donāt already have compute capacity locked in. And even then they will be calculating opportunity cost of their research vs renting. See Colossus x Anthropic.

1. Open source may also begin to have a hard time socially in an environment where AI capabilities start getting spicier (in the next 0-18 months), particularly assuming we are slow to accelerate security, which we have been so far.

1. Open source might begin to languish as capital rushes into the labs. There is a coordination problem here where no one wants a token monopoly except the labs (and maybe the government), but if that can get solved and the regulatory environment is favorable maybe things work out.