Earlier quoted context omitted.
> I think that when the singularity occurs all of the problems in physics will solve, like in a vacuum, and physics will advance centuries if not millennia in a few pico-seconds It doesn't matter how smart you are, you still need to run experiments to do physics. Experiments take nontrivial amounts of time to both run and set up (you can't tunnel a new CERN in picoseconds, again no matter how smart you are). Similarl…
The "singularity" can be decomposed into 2 mutually-supportive feedback loops - the digital and the physical. With frontier LLM agents, the digital loop is happening now to an extent (on inference code, harnesses, etc), and that extent probably grows larger (research automation) soon. Pertinent to your point, however, is the physical feedback loop of robots making better robots/factories/compute/energy. This is an as…
I see no evidence of this, just a lot of people claiming it (very loudly, for the most part).
> that extent probably grows larger (research automation) soon
The word probably is doing a lot of work here.
> The usual constraints of physical law still apply
There are knowledge constraints, too. I can't build a quark matter processor without understanding quark matter to a vastly higher level than we do now. I can't do that without experiments on quark matter, I can't do experiments without access to a lot of energy, material, land, &c, that need to be assembled. There are a huge number of very difficult and time-consuming instrumental goals on the path to fundamentally better compute.
> A separate point: there's also deductive exploration (pure math) as distinct from empirical exploration (physics), which is not bounded by any physical constraints except for those that bound computation itself.
Sure, but physics requires math that is definitionally applied, not pure, and engineering requires physics.