Chapter 3 HW- Probability Topics \( + \) Category: Homework Score: 0 of 3 points \( G \) and \( H \) are mutually exclusive events. \( \mathrm{P}(G)=0.59 \) and \( \mathrm{P}(H)=0.37 \). (a) Why does the statement: \( \mathrm{P}(H \mid G)=0.11 \) must be false? A Because \( \mathrm{P}(H \mid G) \) should be greater than \( \mathrm{P}(G) \) B Because \( \mathrm{P}(H \mid G) \) should be greater than \( \mathrm{P}(H) \) C Because \( \mathrm{P}(H \mid G) \) should be equal to 0 . D Because \( \mathrm{P}(H \mid G) \) should be equal to \( 1-\mathrm{P}(H)-\mathrm{P}(G) \) (b) FindP( \( H \) OR \( G \) ). \[ \mathrm{P}(H \text { OR } G)= \] \( \square \) Enter your answer (c) Are \( G \) and \( H \) independent or dependent events? Choose the correct answer and a reason. A \( G \) and \( H \) are independent events because \( \mathrm{P}(H) \neq \mathrm{P}(G) \). B \( \quad G \) and \( H \) are dependent events because \( \mathrm{P}(H \mid G) \neq P(H) \). C \( G \) and \( H \) are dependent events because \( \mathrm{P}(H \) OR \( G) \neq 0 \) D \( G \) and \( H \) are independent events because \( \mathrm{P}(H \mid G)<\mathrm{P}(G)+\mathrm{P}(H) \).
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If \( G \) and \( H \) are mutually exclusive, it means they cannot occur at the same time. Therefore, if \( G \) occurs, the probability of \( H \) occurring at that moment must be zero. Hence, \( \mathrm{P}(H \mid G) \) must equal 0, making the statement \( \mathrm{P}(H \mid G)=0.11 \) false. The correct answer is C. To find \( \mathrm{P}(H \text{ OR } G) \), you can simply add the probabilities of the two mutually exclusive events together: \[ \mathrm{P}(H \text{ OR } G) = \mathrm{P}(H) + \mathrm{P}(G) = 0.37 + 0.59 = 0.96. \] For the independence of \( G \) and \( H \), the right choice is B. Since \( G \) and \( H \) cannot happen simultaneously, knowing that one happens affects the probabilities of the other occurring, indicating they are dependent events.