LessWrong 2.0 Reader

Hmm. Seems... fragile. I don't think that's a reason not to do it, but I also wouldn't put much hope in the idea that leaks would be successfully prevented by this system.

I think you make some valid points. In particular, I agree that some people seem to have fallen into a trap of being unrealistically pessimistic about AI outcomes which mirrors the errors of those AI developers and cheerleaders who are being unrealistically optimistic. 

On the other hand, I disagree with this critique (although I can see where you're coming from):

If it's instead a boring engineering problem, this stops being a quest to save the world or an all consuming issue. Incremental alignment work might solve it, so in order to preserve the difficulty of the issue, it will cause extinction for some far-fetched reason. Building precursor models then bootstrapping alignment might solve it, so this "foom" is invented and held on to (for a lot of highly speculative assumptions), because that would stop it from being a boring engineering problem that requires lots of effort and instead something a lone genius will have to solve.

I think that FOOM is a real risk, and I have a lot of evidence grounding my calculations about available algorithmic efficiency improvements based on estimates of the compute of the human brain. The conclusion I draw from believing that FOOM is both possible, and indeed likely, after a certain threshold of AI R&D capability is reached by AI models is that preventing/controlling FOOM is an engineering problem.

I don't think we should expect a model in training to become super-human so fast that it blows past our ability to evaluate it. I do think that in order to have the best chance of catching and controlling a rapid accelerating take-off, we need to do pre-emptive engineering work. We need very comprehensive evals to have detailed measures of key factors like general capability, reasoning, deception, self-preservation, and agency. We need carefully designed high-security training facilities with air-gapped datacenters. We need regulation that prevents irresponsible actors from undertaking unsafe experiments. Indeed, most of the critical work to preventing uncontrolled rogue AGI due to FOOM is well described by 'boring engineering problems' or 'boring regulation and enforcement problems'.

Believing in the dangers of recursive self-improvement doesn't necessarily involve believing that the best solution is a genius theoretical answer to value and intent alignment. I wouldn't rule the chance of that out, but I certainly don't expect that slim possibility. It seems foolish to trust in that the primary hope for humanity. Instead, let's focus on doing the necessary engineering and political work so that we can proceed with reasonable safety measures in place!

I am being told that Sheva Brachos in this example is the series of celebrations in the week after the wedding. I don't know if that's a correction or just context, but there you go.

Isn't TLP's email on his website?

How much higher was the scoring on neuroticism than the general population?

How many alignment researchers do you think there are total? What % do you think this survey hit that you wanted it to hit?

But I disagree that there’s no possible RL system in between those extremes where you can have it both ways.

I don't disagree. For clarity, I would make these claims, and I do not think they are in tension:

1. Something being called "RL" alone is not the relevant question for risk. It's how much space the optimizer has to roam.
2. MuZero-like strategies are free to explore more space than something like current applications of RLHF. Improved versions of these systems working in more general environments have the capacity to do surprising things and will tend to be less 'bound' in expectation than RLHF. Because of that extra space, these approaches are more concerning in a fully general and open-ended environment.
3. MuZero-like strategies remain very distant from a brute-forced policy search, and that difference matters a lot in practice.
4. Regardless of the category of the technique, safe use requires understanding the scope of its optimization. This is not the same as knowing what specific strategies it will use. For example, despite finding unforeseen strategies, you can reasonably claim that MuZero (in its original form and application) will not be deceptively aligned to its task.
5. Not all applications of tractable RL-like algorithms are safe or wise.
6. There do exist safe applications of RL-like algorithms.

I created my first fold. I'm not sure if this is something to be happy with as everybody can do it now.

Access to Alpha fold 3: https://golgi.sandbox.google.com/

Is allowing the world access to Alpha Fold 3 a great idea? I don't know how this works but I can imagine a highly motivated bad actor can start from scratch by simply googling/LLM querying/Multi-modal querying each symbol in this image. 

I do think that many of the safety advantages of LLMs come from their understanding of human intentions (and therefore implied values).

Did you mean something different than "AIs understand our intentions" (e.g. maybe you meant that humans can understand the AI's intentions?).

I think future more powerful AIs will surely be strictly better at understanding what humans intend.