I was ineptly objecting to this snippet in particular:
If that were the only provision of the bill, then yes, that would be a problem
The problem I intended to describe in the first two comments of the thread is that this provision creates a particular harmful incentive. By itself, this incentive is created regardless of whether it's also opposed in some contexts by other things. The net effect of the bill in the mitigated contexts could then be beneficial, but the incentive would still be there (in some balance with other incentives), and it wouldn't be mitigated in the other contexts. The incentive is not mitigated for podcasts and blog posts, examples I've mentioned above, so it would still be a problem there (if my argument for it being a problem makes sense), and the way it's still a problem there is not moved at all by the other provisions of the bill.
So I was thinking of my argument as about existence of this incentive specifically, and read tlevin's snippet as missing the point, claiming the incentive's presence depends on things that have nothing to do with the mechanism that brings it into existence. But there's also a plausible reading of what I was saying (even though unintended) as an argument for the broader claim that the bill as a whole incentivises AI companies to communicate less than what they are communicating currently, because of this provision. I don't have a good enough handle on this more complicated question, so it wasn't my intent to touch on it at all (other than by providing a self-contained ingredient for considering this broader question).
But in this unintended reading, tlevin's comment is a relevant counterargument, and my inept objection to it is stubborn insistence on not seeing its relevance or validity, expressed without argument. Judging by the votes, it was a plausible enough reading, and the readers are almost always right (about what the words you write down actually say, regardless of your intent).
"Locally invalid" was a specific react for highlighting the part of a comment that makes a self-contained mistake, different from "Disagree". A faulty step is not centrally a "weak argument", as it's sometimes not any kind of argument. And discussion often gestures at a claim without providing any sort of evidence or giving any argument, the evidence or the argument is for the recipients to reconstruct for themselves.
Whether this thing in particular is a problem or not doesn't depend on the presence of other things in there, even those that would compensate for it.
I wouldn't know about what works in court, but not saying anything (in interviews or posts on their site and such) is probably even safer, unless the sky is already on fire or something. It seems to be a step in an obviously wrong direction, a friction that gets worse if the things AI company representative would've liked to say happen to be sufficiently contrary to prevailing discourse. Like with COVID-19.
Not make “any materially false or misleading statement” about catastrophic risk from its frontier models, its management of catastrophic risk, or its compliance with its frontier AI framework.
The risk of any statement being considered "materially false or misleading" is an incentive for AI companies to avoid talking about catastrophic risk.
In this framing the crux is whether there is an After at all (at any level of capability). The distinction between "failure doesn't kill the observer" (a perpetual Before) and "failure is successfully avoided" (managing to navigate the After).
My point is that the 10-30x AIs might be able to be more effective at coordination around AI risk than humans alone, in particular more effective than currently seems feasible in the relevant timeframe (when not taking into account the use of those 10-30x AIs). Saying "labs" doesn't make this distinction explicit.
with 10-30x AIs, solving alignment takes like 1-3 years of work ... so a crucial factor is US government buy-in for nonproliferation
Those AIs might be able to lobby for nonproliferation or do things like write a better IABIED, making coordination interventions that oppose myopic racing. Directing AIs to pursue such projects could be a priority comparable to direct alignment work. Unclear how visibly asymmetric such interventions will prove to be, but then alignment vs. capabilities work might be in a similar situation.
There doesn't necessarily need to be algorithmic progress to get there, sufficient bandwidth enables traditional pretraining across multiple sites. But it might be difficult to ensure it's available across the geographically distributed sites on short notice, if you aren't already a well-established hyperscaler building near your older datacenter sites.
In 2028, targeting inference on Rubin Ultra NVL576 (150 TB of HBM in a scale-up world) might want a MoE model with 80 TB of total params (80T params if in FP8, 160T in FP4). If training uses the same precision for gradients, that's also 80 TB of gradients to exchange. If averaged gradients use more precision, this could be 2x-8x more data.
If training is done using 2 GW of some kind of Rubin GPUs, that's about 2e22-3e22 FP4 FLOP/s, and at 30% utilization for 4 months it produces 8e28 FP4 FLOPs. At 120 tokens/param (anchoring to 40 tokens/param for the dense Llama 3 405B and adjusting 3x for 1:8 sparsity), this system might want about 10T active params (so we get 1:16 sparsity, with 160T total FP4 params, or about 1:8 for FP8). This needs 1,200T tokens, maybe 250T unique, which is a problem, but not yet orders of magnitude beyond the pale, so probably something can still be done without needing bigger models.
With large scale-up worlds, processing sequences of 32K tokens with non-CPX Rubin NVL144 at 30% utilization would take just 2.7 seconds (for pretraining). A 2 GW system has 9K racks, so that's a batch of 300M tokens, which is already a lot (Llama 3 405B used 16M token batches in the main phase of pretraining), so that should be the target characteristic time for exchanging gradients.
Moving 80 TB in 2.7 seconds needs 240 Tbps, or 500-2,000 Tbps if averaged gradients use 2x-8x more precision bits (even more if not all-to-all, which is likely with more than 2 sites), and this already loses half of utilization or asks for even larger batches. A DWDM system might transmit 30-70 Tbps over a fiber optic pair, so this is 4-70 fiber optic pairs, which seems in principle feasible to secure for overland fiber cables (which hold hundreds of pairs), especially towards the lower end of the estimate.
Some conversations should be primarily about an object level thing, for its own elucidation (they serve the idea itself, bringing it into the world). A person can have motivations that are not about (emotions of) people (including that person themselves).
A good explanation constructs an understanding in its audience, which is slightly different from describing something, or from making it accessible.