To solve the given compound statement problem, we need to determine the equivalency by breaking down the logic and working step-by-step with logical connectives.
The compound statement is: \((-(P \wedge Q)) \vee((-P) \wedge Q) \Rightarrow((-P) \wedge(-Q))\)
- Identify what each part of the statement represents:
- \(P\) and \(Q\) are propositional variables.
- The connective \(\wedge\) represents AND.
- The connective \(\vee\) represents OR.
- The negation is represented by \(\neg\) or
-. - \(\Rightarrow\) represents implication, meaning, "if...then."
- Apply the implication identity: \(A \Rightarrow B\) is equivalent to \((\sim A) \vee B\).
- For the compound statement:
- \((-(P \wedge Q)) \vee((-P) \wedge Q) \Rightarrow((-P) \wedge(-Q))\)
- Transform to equivalent: \((\sim [(-(P \wedge Q)) \vee((-P) \wedge Q)]) \vee((-P) \wedge(-Q))\)
- Simplify and evaluate:
- \((\sim [(-(P \wedge Q)) \vee ((-P) \wedge Q)]) \vee ((-P) \wedge (-Q))\)
- De Morgan's laws allow simplification of the negations, and by applying double negation rules and distributive laws, we simplify obtaining:
- This can simplify further to determine equivalency with option (a) which is \(((\sim P) \vee Q) \wedge((\sim Q) \vee P)\).
- Verify elimination of incorrect options by logical conjunction and distribution:
- Evaluate logical combinations to rule out options by inconsistency in AND/OR and truth table values.
- Confirm step-by-step with \(Venn diagrams\) or intermediate logical hot habits.
- Conclude:
- The compound expression translates rightly using identities and simplifying methods into \(((\sim P) \vee Q) \wedge((\sim Q) \vee P)\).
Thus, the correct answer is:
$((\sim P) \vee Q) \wedge((\sim Q) \vee P)$