You write:
>We created a model without this tradeoff by training our video encoder on a masked compression objective
And I understand why this would give you more detail per token, but how are you reducing total number of tokens?
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You write:
>We created a model without this tradeoff by training our video encoder on a masked compression objective
And I understand why this would give you more detail per token, but how are you reducing total number of tokens?
Hey guys! I’m Neel, been holed up in our south park office for the past year working on model training. excited to share our research! This is a preview of a very different type of computer use model—we train on the internet. Specifically we have 11 million hours of computer video stored on our storage cluster (previously shared https://news.ycombinator.com/item?id=45438496 !) and the model can work in 30 FPS. Since…
Must have been really hard. What was the breakthrough?
Hey guys! I’m Neel, been holed up in our south park office for the past year working on model training. excited to share our research! This is a preview of a very different type of computer use model—we train on the internet. Specifically we have 11 million hours of computer video stored on our storage cluster (previously shared https://news.ycombinator.com/item?id=45438496 !) and the model can work in 30 FPS. Since…
At first glance, this looks incredible to me. The authors train one model on 40K hours of computer-use video, previously labeled by contractors with keyboard and mouse actions, then use that model, in effect, to label 11M hours of computer-use video, which they use to train the computer-action model. The key advance is in compression. Quoting from the OP: > [previous models] burn a million tokens to understand just o…
yeah! i love the BCO paper, i think its extremely intuitive and these methods are really interesting in a time where data without labels is abundant. i especially like the idea of iteratively making the inverse dynamics better—might lean closer to that in the future
Same here.
The notion of inducing these models to "hypothesize" distributions over possible actions given subsequent observed transitions makes me think of "contrastive divergence," the method Hinton and others came up with for unsupervised training of Restricted Boltzmann Machines (RBMs), in the prehistoric era of deep learning.
Given each training sample, an RBM would 1) execute a forward pass, 2) sample its output units, 3) "hypothesize" its input units, 4) execute another forward pass on the "hypothesized" input units to sample new output units, and (5) compute a type of contrastive error for local backpropagation. RMBs could be stacked, with output units from one becoming input units for the next one. Hinton called the input units "visible," and the output ones "hidden."
It's not the same, obviously, but the idea of modeling machine-generated inputs (or actions) given outputs (or transitions) has always been appealing. It has a long history.
Disgusting website.
> We believe artificial general intelligence will be created within our lifetimes, and likely within the next decade.
Maybe within our lifetimes (if you are young) but I find it highly unlikely within the next decade.