For the following logic circuit, the truth table is:
\(\begin{matrix} A &B &Y \\ 0&0 &0 \\ 0&1 &1 \\ 1&0 &1 \\ 1&1 &1 \end{matrix}\)
\(\begin{matrix} A &B &Y \\ 0&0 &1 \\ 0&1 &0 \\ 1&0 &1 \\ 1&1 &0 \end{matrix}\)
\(\begin{matrix} A &B &Y \\ 0&0 &0 \\ 0&1 &0 \\ 1&0 &0 \\ 1&1 &1 \end{matrix}\)
\(\begin{matrix} A &B &Y \\ 0&0 &1 \\ 0&1 &1 \\ 1&0 &1 \\ 1&1 &0 \end{matrix}\)
The correct option is (C): \(\begin{matrix} A &B &Y \\ 0&0 &0 \\ 0&1 &0 \\ 1&0 &0 \\ 1&1 &1 \end{matrix}\)
Y=\(\bar{\bar{A}.\bar{B}}=\bar{\bar{A}}+\bar{\bar{B}}\)
=(A+B) OR Gate
Sliding contact of a potentiometer is in the middle of the potentiometer wire having resistance \( R_p = 1 \, \Omega \) as shown in the figure. An external resistance of \( R_e = 2 \, \Omega \) is connected via the sliding contact.
The current \( i \) is :
Given below are two statements: one is labelled as Assertion A and the other is labelled as Reason R.
Assertion A : The potential (V) at any axial point, at 2 m distance(r) from the centre of the dipole of dipole moment vector
\(\vec{P}\) of magnitude, 4 × 10-6 C m, is ± 9 × 103 V.
(Take \(\frac{1}{4\pi\epsilon_0}=9\times10^9\) SI units)
Reason R : \(V=±\frac{2P}{4\pi \epsilon_0r^2}\), where r is the distance of any axial point, situated at 2 m from the centre of the dipole.
In the light of the above statements, choose the correct answer from the options given below :
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.