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> constrained problem human AI also evolved by solving constrained problems, one at a time. Life existed before the visual system , but once this was solved it
by buboard 7y ago
> constrained problem
human AI also evolved by solving constrained problems, one at a time. Life existed before the visual system , but once this was solved it moved on to do other things. In AI we have a number of sensory systems seemingly solved: Speech recognition, visual object recognition, and we are closing to certain output (motor) systems: NLP text synthesis systems seem a lot like the central pattern generators that control human gait, except for language. What seems to be missing is the "higher-level ", more abstract kernels that create intent, which are also difficult to train because we don't have a lot of meaningful datasets. Or maybe , we have too big datasets (the entirety of wikipedia) but we don't know how to encode it in a meaningful way for training. It's not clear however that these "integrating systems" are going to be fundamentally different to solve than other subsystems. It certainly doesn't seem to be so in the brain, since neocortex (which hosts both sensory and motor and higher level systems) is rather homogeneous. In any case, it seems we 're solving problems one after another without copying nature's designs, so it's not automatically true that we need to copy nature in order to keep solving more.
- acdha 7y ago> In AI we have a number of sensory systems seemingly solved: Speech recognition, visual object recognition, Do you have examples of those systems which are competitive in general use rather than specialized niches? The cloud offerings from Amazon, Google, etc. are good in the specific cases they’re trained on but fall off rapidly once you get new variants which a human would handle easily.
- buboard 7y agoThere are many vision models where classification is better than human. I m not sure what you mean 'fall of rapidly'; they do fail however for certain inputs where humans are better. But we 're talking about models that contain 6 to 7 orders of magnitude less neurons than an adult brain.