Lol. With the exception of niche groups in compressed sensing, math doesn't get too hard. Furthermore, ML isn't math driven in the sense people are trying things and somebody tries to come up with the explanation after the fact.
I don't claim that the opposite is easy either. Chemistry is really difficult, and I understand very little.
They have a few other groups as well (https://nips.cc/Conferences/2022/ScheduleMultitrack?event=60... and https://neurips.cc/Conferences/2022/ScheduleMultitrack?event... and https://neurips.cc/Conferences/2022/ScheduleMultitrack?event...).
I can't say I know anybody there who is doing what I would describe as truly pure research into ML; it's not in the DNA of the company (so to speak) to do that.
The HEAR benchmark is a great eye-opener. They have basically three classes of audio tasks, and find very different models excel in each, with the best overall models being kinda-mindless ensembles of the ones that do well on particular problems.
So if you've got something that works well for text... it'll take a couple years and maybe an entire new branch of research (diffusion!) to work well for image generation. I have no idea what generative models for chemistry will look like, but will happily bet that it takes some significant specialized effort.
1. The era of ML benchmarks is ending. New models have to be and will be evaluated the same way human experts are evaluated.
2. Foundational models are becoming multi modal. There will be no separation of text and image generation. Sure, different methods will be used for each, but the learned representations of visual and textual objects in models like Stable Diffusion already live in the same conceptual space.
I don’t think there will be specialized generative models for chemistry two years from now. There will be GPT-5 (and similar competitors) which will be used to perform all kinds of research, including chemistry.
For example, AlphaFold just fundamentally isn't a language model, but is fundamentally useful. We'll still need these models that Do Stuff in many areas, and that will still involve benchmarks... Even if we're able to ask GPT-N+1 to design the next version of the model for us.
I think what you’re saying is a commonly found attitude that relates to this topic: it’s pretty limiting to think a cursory knowledge of a field is sufficient to go change it. That’s likely why most “use ML to solve x” projects fail when some like AlphaFold succeed because the ML engineers truly understood the fundamental tenets of the topic and exploited it.
AlphaFold succeed because the ML engineers truly understood the fundamental tenets of the topic and exploited it
What makes you think it wasn't chemists or biologists who learned enough ML to solve the problem?