I feel a bit behind on everything going on in alignment, so for the next weeks (or more) I'll focus on catching up on what ever I find interesting. I'll be using my short form, to record my though.
I make no promises that reading this is worth anyone's time.
Linda's alignment reading adventures part 1
What to focus on?
I do have some opinions on what aliment directions are more or less promising. I'll probably venture in other directions too, but my main focus is going to be around what I expect an alignment solution to look like.
I think that to have an aligned AI it is necessary (but not sufficient) that we have shared abstractions/ontology/concepts/ (what ever you want to call it) with the AI.
I think the way to make progress on the above is to understand what ontology/concepts/abstraction our current AIs are using, and the process that shapes these abstraction.
I think the way to do this is though mech-interp, mixed with philosophising and theorising. Currently I think the mech-interp part (i.e. look at what is actually going on in a network) is the bottleneck, since I think that philosophising with out data (i.e. agent foundations) has not made much progress lately.
Conclusion:
I'll mainly focus on reading up on mech-interp and related areas such as dev-interp. I've started on the interp section of Lucius's aliment reading list.
I should also read some John Wentworth, since his plan is pretty close to the path I think is most promising.
But also, how interesting is this. Basically they removed the cheese observation, it made the agent act as if there where no cheese. This is not some sophisticated steering technique that we can use to align the AIs motivation.
I discussed this with Lucius who pointed out, that the interesting result is that: The the cheese location information is linearly separable from other information, in the middle of the network. I.e. it's not scrambled in a completely opaque way.
Alon’s book is the ideal counterargument to the idea that organisms are inherently human-opaque: it directly demonstrates the human-understandable structures which comprise real biological systems.
Both these posts are evidence for the hypothesis that we should expect evolved networks to be modular, in a way that is possible for us to decode.
By "evolved" I mean things in the same category as natural selection and gradient decent.