$(\sim (\sim p)) \wedge q$ is equal to .........
$\sim p \wedge q$
$p \wedge q$
$p\; \wedge \sim q$
$\sim p\; \wedge \sim q$
The Boolean Expression $\left( {p\;\wedge \sim q} \right)\;\;\vee \;q\;\;\vee \left( { \sim p\wedge q} \right)$ is equivalent to:
The statement $[(p \wedge q) \rightarrow p] \rightarrow (q \wedge \sim q)$ is
For any two statements $p$ and $q,$ the negation of the expression $p \vee ( \sim p\, \wedge \,q)$ is
Which of the following is the negation of the statement "for all $M\,>\,0$, there exists $x \in S$ such that $\mathrm{x} \geq \mathrm{M}^{\prime \prime} ?$
The contrapositive of the statement "If I reach the station in time, then I will catch the train" is