In reality, not very surprised. I'd probably be annoyed/infuriated depending on whether the actual stakes are measured in billions of human lives.
Nevertheless, that merely represents the fact that I am not 100% certain about my reasoning. I do still maintain that rationality in this context definitely implies trying to maximise utility (even if you don't literally define rationality this way, any version of rationality that doesn't try to maximise when actually given a payoff matrix is not worthy of the term) and so we should expect that Clippy faces a similar decision to us, but simply favours the paperclips over human lives. If we translate from lives and clips to actual utility, we get the normal prisoner's dilemma matrix - we don't need to make any assumptions about Clippy.
In short, I feel that the requirement that both agents are rational is sufficient to rule out the asymmetrical options as possible, and clearly sufficient to show (C,C) > (D,D). I get the feeling this is where we're disagreeing and that you think we need to make additional assumptions about Clippy to assure the former.
Subscribe to RSS Feed
= f037147d6e6c911a85753b9abdedda8d)
The first theory is falsifiable as long as you're willing to let enough people die. Collect blood samples from everyone before they take the medecine. Sequence their full exome and put it on file.
once you have a few thousand dead and a few thousand survivors you should be able to narrow candidates down to a few dozen genes.
Make predictions about who will die out of the next few hundred who take the pill, bam.
Turns out it's an eye color gene having some weird effect on a vital pathway that the drug is linked to.
Alternatively if it's not genetic at all, if single members of pairs of twins taking the drug died at rates inconsistent with the expected numbers of mutations between twins then we could be pretty sure it's not genetic.
or perhaps it's only partially genetic, again twins and siblings would let us work this out.
Seems pretty falsifiable.
Yes, that's definitely true. If you know a little, or a lot, about genetics, then the theory is falsifiable.
I think it still works just fine as an example though. The goal was to explain the meaning and the importance of falsifiability. Spotiswood's theory, as presented and as it was being used, wasn't making any useful predictions. No one was looking at familial comparisons, and i implied that Spotiswood wasn't making any effort to identify the gene, so the only observations that were coming in were "person lives", or "person dies". Within that context, Spotiswood's theory can explain any observation, and makes no useful predictions.
If that's not an example of an unfalsifiable theory, then it's still an example that helps explain the key elements of unfalsifiability, and helps explain why they're important.
If an audience member should then point out what you pointed out? Then that's brilliant. We can agree with the audience member, and talk about how this new consideration shows that the theory can be falsifiable after all.
But then we also get to point out how this falsifiability is what makes a theory much more useful... and the example still works because (QED) that's exactly the point we were trying to demonstrate.