Sometimes people think of "software-only singularity" as an important category of ways AI could go. A software-only singularity can roughly be defined as when you get increasing-returns growth (hyper-exponential) just via the mechanism of AIs increasing the labor input to AI capabilities software[1] R&D (i.e., keeping fixed the compute input to AI capabilities).
While the software-only singularity dynamic is an important part of my model, I often find it useful to more directly consider the outcome that software-only singularity might cause: the feasibility of takeover-capable AI without massive compute automation. That is, will the leading AI developer(s) be able to competitively develop AIs powerful enough to plausibly take over[2] without previously needing to use AI systems to massively (>10x) increase compute production[3]?
[This is by Ryan Greenblatt and Alex Mallen]
We care about whether the developers' AI greatly increases compute production because this would require heavy integration into the global economy in a way that relatively clearly indicates to the world that AI is transformative. Greatly increasing compute production would require building additional fabs which currently involve substantial lead times, likely slowing down the transition from clearly transformative AI to takeover-capable AI.[4][5] In addition to economic integration, this would make the developer dependent on a variety of actors after the transformative nature of AI is made more clear, which would more broadly distribute power.
For example, if OpenAI is selling their AI's labor to ASML and massively accelerating chip production before anyone has made takeover-capable AI, then (1) it would be very clear to the world that AI is transformatively useful and accelerating, (2) building fabs would be a constraint in scaling up AI which would slow progress, and (3) ASML and the Netherlands could have a seat at the table in deciding how AI goes (along with any other actors critical to OpenAI's competitiveness). Given that AI is much more legibly transformatively powerful in this world, they might even want to push for measures to reduce AI/human takeover risk.
A software-only singularity is not necessary for developers to have takeover-capable AIs without having previously used them for massive compute automation (it is also not clearly sufficient, since it might be too slow or uncompetitive by default without massive compute automation as well). Instead, developers might be able to achieve this outcome by other forms of fast AI progress:
My inside view sense is that the feasibility of takeover-capable AI without massive compute automation is about 75% likely if we get AIs that dominate top-human-experts prior to 2040.[7] Further, I think that in practice, takeover-capable AI without massive compute automation is maybe about 60% likely. (This is because massively increasing compute production is difficult and slow, so if proceeding without massive compute automation is feasible, this would likely occur.) However, I'm reasonably likely to change these numbers on reflection due to updating about what level of capabilities would suffice for being capable of takeover (in the sense defined in an earlier footnote) and about the level of revenue and investment needed to 10x compute production. I'm also uncertain whether a substantially smaller scale-up than 10x (e.g., 3x) would suffice to cause the effects noted earlier.
To-date software progress has looked like "improvements in pre-training algorithms, data quality, prompting strategies, tooling, scaffolding" as described here. ↩︎
This takeover could occur autonomously, via assisting the developers in a power grab, or via partnering with a US adversary. I'll count it as "takeover" if the resulting coalition has de facto control of most resources. I'll count an AI as takeover-capable if it would have a >25% chance of succeeding at a takeover (with some reasonable coalition) if no other actors had access to powerful AI systems. Further, this takeover wouldn't be preventable with plausible interventions on legible human controlled institutions, so e.g., it doesn't include the case where an AI lab is steadily building more powerful AIs for an eventual takeover much later (see discussion here). This 25% probability is as assessed under my views but with the information available to the US government at the time this AI is created. This line is intended to point at when states should be very worried about AI systems undermining their sovereignty unless action has already been taken. Note that insufficient inference compute could prevent an AI from being takeover-capable even if it could take over with enough parallel copies. And note that whether a given level of AI capabilities suffices for being takeover-capable is dependent on uncertain facts about how vulnerable the world seems (from the subjective vantage point I defined earlier). Takeover via the mechanism of an AI escaping, independently building more powerful AI that it controls, and then this more powerful AI taking over would count as that original AI that escaped taking over. I would also count a rogue internal deployment that leads to the AI successfully backdooring or controlling future AI training runs such that those future AIs take over. However, I would not count merely sabotaging safety research. ↩︎
I mean 10x additional production (caused by AI labor) above long running trends in expanding compute production and making it more efficient. As in, spending on compute production has been increasing each year and the efficiency of compute production (in terms of FLOP/$ or whatever) has also been increasing over time, and I'm talking about going 10x above this trend due to using AI labor to expand compute production (either revenue from AI labor or having AIs directly work on chips as I'll discuss in a later footnote). ↩︎
Note that I don't count converting fabs from making other chips (e.g., phones) to making AI chips as scaling up compute production; I'm just considering things that scale up the amount of AI chips we could somewhat readily produce. TSMC's revenue is "only" about $100 billion per year, so if only converting fabs is needed, this could be done without automation of compute production and justified on the basis of AI revenues that are substantially smaller than the revenues that would justify building many more fabs. Currently AI is around 15% of leading node production at TSMC, so only a few more doublings are needed for it to consume most capacity. ↩︎
Note that the AI could indirectly increase compute production via being sufficiently economically useful that it generates enough money to pay for greatly scaling up compute. I would count this as massive compute automation, though some routes through which the AI could be sufficiently economically useful might be less convincing of transformativeness than the AIs substantially automating the process of scaling up compute production. However, I would not count the case where AI systems are impressive enough to investors that this justifies investment that suffices for greatly scaling up fab capacity while profits/revenues wouldn't suffice for greatly scaling up compute on their own. In reality, if compute is greatly scaled up, this will occur via a mixture of speculative investment, the AI earning revenue, and the AI directly working on automating labor along the compute supply chain. If the revenue and direct automation would suffice for an at least massive compute scale-up (>10x) on their own (removing the component from speculative investment), then I would count this as massive compute automation. ↩︎
A large algorithmic advance isn't totally unprecedented. It could suffice if we see an advance similar to what seemingly happened with reasoning models like o1 and o3 in 2024. ↩︎
About 2/3 of this is driven by software-only singularity. ↩︎
Ryan discusses this at more length in his 80K podcast.