Suppose, I'm performing a certain experiment with many outcomes corresponding to $4$ events - $A,B,C,D$.
We have been given the following data : $$p(A)>p(B),p(C),p(D)$$
$$p(A)<p(A^c)$$
This means, in a single trial $A$ is more likely to occur than other events $B,C,D$, since it has a higher probability.
However, if we carry out the same experiment many-many times, we'd get a lot of different results, and from these results we'd expect $A$ to be the mode, but there will be more results where $A$ does not happen, than those where $A$ does happen. This is because, even though the individual probabilities of $B,C,D$ are less than that of $A$, the combined probability is larger. Thus, in the final tally, $A$ would happen more than $B,C,D$ individually, but there will be more outcomes where $A$ does not happen.
From this perspective, $A$ is less likely to occur.
So, in a single trial $A$ is more likely to occur than others, but from the perspective of multiple trials, $A$ is less likely to occur.
An example is an event of $100$ coin tosses. The probability of getting $50$ heads is roughly $0.08$. This is more than any other probability. Does this then imply, that in a single trial we are most likely to obtain an equal number of heads and tails, but if we repeat the experiment many times, there will simply be many more cases of not getting equal amounts of heads and tails? So, from the perspective of many trials, getting an equal amount of heads and tails is less likely, even though in a single trial it is most likely?
In a single trial, we compare the probabilities of individual events to determine what is most likely. However, in many trials, we compare the probability of something happening against that same thing not happening, to determine if it is likely to happen or not.
Is this a correct interpretation of what is meant by more or less likely in probability? Can someone verify this for me?
The answers to this [question]: (Feynman random walk) seem to talk about this thing - but I'm not being able to interpret this correctly)
Can anyone tell me, if the above interpretation is correct?