The negation of \( (p \land (\sim q)) \lor (\sim p) \) is equivalent to:
To find the negation of logical expressions, apply De Morgan's laws carefully, then simplify using logical identities and set theory concepts if needed.
We start with the given expression:
\[ (p \land (\sim q)) \lor (\sim p). \]
Apply the negation:
\[ \sim \big((p \land (\sim q)) \lor (\sim p)\big). \]
Using De Morgan's laws:
\[ \sim (A \lor B) = (\sim A) \land (\sim B). \]
Here, \( A = (p \land (\sim q)) \) and \( B = (\sim p) \):
\[ \sim \big((p \land (\sim q)) \lor (\sim p)\big) = (\sim (p \land (\sim q))) \land (\sim (\sim p)). \]
Simplify each term:
Thus, the expression becomes:
\[ ((\sim p) \lor q) \land p. \]
Distribute \( p \):
\[ ((\sim p) \land p) \lor (q \land p). \]
Since \( (\sim p) \land p = \text{False} \):
\[ \text{False} \lor (q \land p) = (q \land p). \]
Hence, the negation simplifies to:
\[ p \land q. \]
Which logic gate is represented by the following combinations of logic gates?



The logic gate equivalent to the circuit given in the figure is
The heat generated in 1 minute between points A and B in the given circuit, when a battery of 9 V with internal resistance of 1 \(\Omega\) is connected across these points is ______ J. 
The given circuit works as: 
Let the lines $L_1 : \vec r = \hat i + 2\hat j + 3\hat k + \lambda(2\hat i + 3\hat j + 4\hat k)$, $\lambda \in \mathbb{R}$ and $L_2 : \vec r = (4\hat i + \hat j) + \mu(5\hat i + + 2\hat j + \hat k)$, $\mu \in \mathbb{R}$ intersect at the point $R$. Let $P$ and $Q$ be the points lying on lines $L_1$ and $L_2$, respectively, such that $|PR|=\sqrt{29}$ and $|PQ|=\sqrt{\frac{47}{3}}$. If the point $P$ lies in the first octant, then $27(QR)^2$ is equal to}
It is the gate, where a circuit performs an AND operation. It has n number of input where (n >= 2) and one output.
It is the gate, where a circuit performs an OR operation. It has n number of input where (n >= 2) and one output.
An inverter is also called NOT Gate. It has one input and one output where the input is A and the output is Y.
A NAND operation is also called a NOT-AND operation. It has n number of input where (n >= 2) and one output.
A NOR operation is also called a NOT-OR operation. It has n number of input where (n >= 2) and one output.
XOR or Ex-OR gate is a specific type of gate that can be used in the half adder, full adder, and subtractor.
XNOR gate is a specific type of gate, which can be used in the half adder, full adder, and subtractor. The exclusive-NOR gate is flattened as an EX-NOR gate or sometimes as an X-NOR gate. It has n number of input (n >= 2) and one output.