I think that is quite interesting.
Perhaps looking at the examples up thread and plugging some situations into a solver, we could get an idea of the shape of the pot growth.
Thinking ahead about this number:
Quote:
Maybe realistically, this "limit" should be more like 221*1.5=332 BBs (1.5 BBs = BB plus SB in pot preflop).
I think we should call this number win P^i, honoring the classics imo.
I think we need to figure out which hand progresses like this:
nuts vs 2nd nuts = raising war ends with 2nd nuts calling.
then the flop comes and improves the 2nd nuts to the nuts, and regresses the nuts to the 2nd nuts. raising war ends with 2nd nuts calling.
then the turn comes and improves the 2nd nuts to the nuts, and regresses the nuts to the 2nd nuts. raising war ends with 2nd nuts calling.
then the river comes and improves the 2nd nuts to the nuts, and regresses the nuts to the 2nd nuts. raising war ends with 2nd nuts calling.
et voila.
I wouldn't be surprised if pzeroe's numbers were close enough to perhaps provide an interesting cross sectional view of the geometric pot growth and distribution. If one were so inclined visually to imagine such a pot that increases in size, and one that sees such massive ev swings from street to street, in the context of the original post, then one could also imagine every other possibility of ev distribution among expert play will create a pot that is smaller in size than the one produced by the answer to the original post.
We could then identify the limits of ev distribution further by identifying the smallest possible pot:
(ante + blinds + bring in) = win P^ii
and maybe we could do some work from there. Maybe even get a program that shows your ev as a pie chart as the hand progresses, and the program could record the distributions individually. Then all identical situations could be combined to provide an (average ev) from any decision point resulting in a pot size somewhere between P^i and P^ii.