Yes, if the bet is about whether the room takes the color Red in this experiment. Which is what event “Red” means in Technicolor Sleeping Beauty according to the correct model. The fact that you do not observe event Red in this awakening doesn’t mean that you don’t observe it in the experiment as a whole.
The situation is somewhat resembling learning that today is Monday and still being ready to bet at 1:1 that Tuesday awakening will happen in this experiment. Though, with colors there is actually an update from 3⁄4 to 1⁄2.
What you, probably, tried to ask, is whether you should agree to bet at 1:1 odds that the room is Red in this particular awakening after you wake up and saw that the room is Blue. And the answer is no, you shouldn’t. But probability space for Technicolor Sleeping beauty is not talking about probabilities of events happening in this awakening, because most of them are illdefined for reasons explained in the previous post.
And the answer is no, you shouldn’t. But probability space for Technicolor Sleeping beauty is not talking about probabilities of events happening in this awakening, because most of them are illdefined for reasons explained in the previous post.
So probability theory can’t possibly answer whether I should take free money, got it.
And even if “Blue” is “Blue happens during experiment”, you wouldn’t accept worse odds than 1:1 for Blue, even when you see Blue?
So probability theory can’t possibly answer whether I should take free money, got it.
No, that’s not what I said. You just need to use a different probability space with a different event—“observing Red in any particular day of the experiment”.
You can do this because for every day probability to observe the color is the same. Unlike, say, Tails in the initial coin toss which probability is 1⁄2 on Monday and 1 on Tuesday.
It’s indeed a curious thing which I wasn’t thinking about, because you can arrive to the correct betting odds on the color of the room for any day, using the correct model for technicolor sleeping beauty. As P(Red)=P(Blue) and rewards are mutually exclusive, U(Red)=U(Blue) and therefore 1:1 odds. But this was sloppy of me, because to formally update when you observe the outcome you still need an appropriate separate probability space, even if the update is trivial.
So thank you for bringing it up to my attention and, I’m going to talk more about it in a future post.
Yes, if the bet is about whether the room takes the color Red in this experiment. Which is what event “Red” means in Technicolor Sleeping Beauty according to the correct model. The fact that you do not observe event Red in this awakening doesn’t mean that you don’t observe it in the experiment as a whole.
The situation is somewhat resembling learning that today is Monday and still being ready to bet at 1:1 that Tuesday awakening will happen in this experiment. Though, with colors there is actually an update from 3⁄4 to 1⁄2.
What you, probably, tried to ask, is whether you should agree to bet at 1:1 odds that the room is Red in this particular awakening after you wake up and saw that the room is Blue. And the answer is no, you shouldn’t. But probability space for Technicolor Sleeping beauty is not talking about probabilities of events happening in this awakening, because most of them are illdefined for reasons explained in the previous post.
So probability theory can’t possibly answer whether I should take free money, got it.
And even if “Blue” is “Blue happens during experiment”, you wouldn’t accept worse odds than 1:1 for Blue, even when you see Blue?
No, that’s not what I said. You just need to use a different probability space with a different event—“observing Red in any particular day of the experiment”.
You can do this because for every day probability to observe the color is the same. Unlike, say, Tails in the initial coin toss which probability is 1⁄2 on Monday and 1 on Tuesday.
It’s indeed a curious thing which I wasn’t thinking about, because you can arrive to the correct betting odds on the color of the room for any day, using the correct model for technicolor sleeping beauty. As P(Red)=P(Blue) and rewards are mutually exclusive, U(Red)=U(Blue) and therefore 1:1 odds. But this was sloppy of me, because to formally update when you observe the outcome you still need an appropriate separate probability space, even if the update is trivial.
So thank you for bringing it up to my attention and, I’m going to talk more about it in a future post.