@tonylfeng LLMs are superhuman in some aspects, but are not even human level in the ones that matter to be considered AGI, IMO.
I am talking about continual learning, mostly.
@VictorTaelin I would be already wary enough of a free proprietary programming language, but there is no chance at all I would use a subscription based one, no matter how good it is. Unless maybe I am paid by a company to use it, of course.
@TrisH0x2A What about stopping at the first mismatch, but compare bytes in a different random order at each call?
Maybe not as secure as comparing every byte, now that I think about it.
@gabriberton The brain does not seem to be doing backprop, but it might still compute the same thing as backprop (perhaps approximately). Backprop is just here for credit assignment, which the brain also needs.
But yeah, JEPA and HRM are about as inspired by the brain as anything else in DL.
@fraserpricee It is old but you should take a look at project Tierra by Thomas S. Ray as well as the more recent SALIS simulation that it inspired (great video series on youtube).
For recent academic research, maybe look into what was published at the Alife conference.
@tautologer There are other materialist options at least. For instance, electromagnetic consciousness or the theory of Andrés Gómez Emilsson.
Functionalism is just one materialist theory of consciousness and it is not even the best one IMO.
@VictorTaelin Finding ideas to test is easy, if only I had compute.
Last time I ran a GPU intensive training run, it nearly killed my PC.
Compute is in the hands of people that are afraid of betting on something new.
The man who invented RRT put his entire textbook ONLINE FOR FREE.
If a robot moves from A to B without hitting anything, there's a good chance it's using an algorithm Steve LaValle created.
The Rapidly-Exploring Random Tree (RRT) is inside autonomous vehicles, robotic arms, surgical robots, and space systems worldwide.
LaValle then wrote the definitive book on planning algorithms. 826 pages. Published by Cambridge University Press.
Then he put the whole thing on his personal website. Free. No login. PDF.
It covers everything: motion planning, planning under uncertainty, sensor-based planning, game theory, reinforcement learning, trajectory planning, and nonholonomic systems.
The full picture of how robots decide where to go and how to get there.
Free at https://t.co/yhZuA7kKvu
Follow for more robotics classics & free resources like this.
——
Weekly robotics and AI insights.
Subscribe free: https://t.co/9Nm01QUcw3
@lost_in_tech@BambulabGlobal Aren't they shrink lines? It matches the external ridges, maybe there is internal geometry that makes the layer times different at these heights.
@_fracapuano I find it a bit ironic that to avoid pretraining on a proxy-task, JEPA also ends up relying on a proxy task, which is learning embeddings invariant to a set of arbitrarily chosen data augmentations.
If you choose the invariants badly, you will also get poor representations.
@DeepDishEnjoyer The UAT alone does not explain why we can find ~0 loss models this easily with SGD and why solutions we usually find generalize so well (for some things).
The UAT just says that a model fitting the data exists in the hypothesis class if the architecture is large enough.
@nic_carter The way I see it, LLMs are general in the same sense that assembling a bunch of specialized AIs together into one system is general.
But the number of different tasks a system can do is actually irrelevant, only the ability to learn to solve novel tasks is. LLMs fail at that.
@jordyw35@GaryMarcus Hardware will continue to improve, but most importantly, training algorithms will improve so that training becomes sufficiently efficient.
For instance, the continual learning algorithm might involve filtering irrelevant information in real time, to learn only the relevant.