auto-update(nvim): 2025-01-09 00:49:32
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@ -10,7 +10,7 @@
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#outline()
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#outline()
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= Lecture 1
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= Lecture #datetime(day: 6, month: 1, year: 2025).display()
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== Preliminaries
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== Preliminaries
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@ -349,8 +349,18 @@ This is mostly a formal manipulation to derive the obviously true proposition fr
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This is a stronger result of axiom 3, which generalizes for all sets $A$ and $B$ regardless of whether they're disjoint.
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This is a stronger result of axiom 3, which generalizes for all sets $A$ and $B$ regardless of whether they're disjoint.
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]
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]
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#remark[
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These are mostly intuitively true statements (think about the probabilistic
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concepts represented by the sets) in classical probability that we derive
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rigorously from our axiomatic probability function $P$.
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]
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#example[
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#example[
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Now let us consider some trivial concepts in classical probability written in
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the parlance of combinatorial probability.
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Select one card from a deck of 52 cards.
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Select one card from a deck of 52 cards.
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Then the following is true:
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$
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$
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Omega = {1,2,...,52} \
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Omega = {1,2,...,52} \
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@ -374,7 +384,7 @@ This is mostly a formal manipulation to derive the obviously true proposition fr
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== Countable sample spaces
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== Countable sample spaces
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#definition[
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#definition[
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A sample space $Omega$ is said to be *countable* if its finite or countably infinite.
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A sample space $Omega$ is said to be *countable* if it's finite or countably infinite.
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]
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]
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In such a case, one can list the elements of $Omega$.
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In such a case, one can list the elements of $Omega$.
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