This same fellow was big on autonomous swarms for problem solving, but when I asked him what the problem autonomous swarms were supposed to solve that you couldn't solve more easily and quickly by a LLM talking to itself, he didn't have an answer.
This same fellow was big on autonomous swarms for problem solving, but when I asked him what the problem autonomous swarms were supposed to solve that you couldn't solve more easily and quickly by a LLM talking to itself, he didn't have an answer.
Targeted AI applications and virtual "executive assistant" agents are going to be huge though.
That’s all it really is
On a somewhat related note, I'm reminded of the game Crysis, which was developed with a custom engine (CryEngine 2) which was famously too demanding to run at high settings on then-existing hardware (in 2007). They bet on the likes of Nvidia to continue rapidly improving the tech, and they were absolutely right, as it was a massive success.
[0] http://www.incompleteideas.net/IncIdeas/BitterLesson.html
It’s also silly.
The crytek case is similar, but there’s a big difference. Crytek was betting that performance of hardware will increase. A lot of AI startups are betting that future LLMs will have an new different, fairly vague, capabilities (AGI, whatever that actually means)
With LLMs there's not not only no clear path to the goal, but there's every reason to think that such a path may not exist. In literally every domain neural networks have been utilized in you reach asymptotic level diminishing returns. Truly full self driving vehicles are just the latest example. They're just as far away now as they were years ago. If anything they now seem much further away because years ago many of us expected the exponential progress to continue, meaning that full self driving was just around the corner. We now have the wisdom to understand that, at the minimum, that's one rather elusive corner.
Is that true, though? I think of "grokking", where long training runs result in huge shifts in generalization, only with orders of magnitude more training after training error seemed to be asymptotically low.
This'd suggest both that there's not that asymptotic limit you refer to - something very important is happening much later - and that there are potentially some important paths to generalization on lower amounts of training data that we haven't yet figured out.
A lower error, after a certain point, does not suggest better responses