This problem involves understanding the properties of mutually exclusive and exhaustive events in probability.
For mutually exclusive and exhaustive events, the sum of their individual probabilities is equal to 1:
\( P(A) + P(B) + P(C) = 1 \)
The question provides the following relationships between the probabilities of events A, B, and C:
From the first relationship, we can express \(P(B)\) in terms of \(P(A)\): \( P(B) = \frac{4}{3} P(A) \)
From the second relationship, we can express \(P(C)\) in terms of \(P(B)\): \( P(C) = \frac{2}{3} P(B) \)
Now, let's substitute the expression for \(P(B)\) into the equation for \(P(C)\) to get \(P(C)\) in terms of \(P(A)\): \( P(C) = \frac{2}{3} \left( \frac{4}{3} P(A) \right) \) \( P(C) = \frac{8}{9} P(A) \)
We know that for these mutually exclusive and exhaustive events, the sum of their probabilities is 1:
\( P(A) + P(B) + P(C) = 1 \)
Substitute the expressions for \(P(B)\) and \(P(C)\) in terms of \(P(A)\) into this equation:
\( P(A) + \frac{4}{3} P(A) + \frac{8}{9} P(A) = 1 \)
To solve for \(P(A)\), find a common denominator, which is 9:
\( \frac{9}{9} P(A) + \frac{12}{9} P(A) + \frac{8}{9} P(A) = 1 \)
Combine the terms on the left side:
\( \left( \frac{9 + 12 + 8}{9} \right) P(A) = 1 \) \( \frac{29}{9} P(A) = 1 \)
Finally, isolate \(P(A)\):
\( P(A) = \frac{9}{29} \)
Therefore, the probability of event A, \(P(A)\), is 9/29.
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