Choose the correct logic circuit for the given truth table having inputs A and B.

We are given a truth table with two inputs, A and B, and one output, Y:
| A | B | Y |
|---|---|---|
| 0 | 0 | 0 |
| 0 | 1 | 0 |
| 1 | 0 | 1 |
| 1 | 1 | 1 |
By examining the truth table, we can determine the relationship between the inputs (A, B) and the output (Y):
This shows that the output Y is always equal to the input A. Therefore, the logic function is:
$ Y = A $
The task is to find the logic circuit diagram that implements the function $ Y = A $. This means the circuit should output the value of input A directly, and input B should not affect the output.
Comparing the given truth table with standard logic gates:
The function $ Y = A $ is directly implemented by a circuit where A is passed through to Y, and B is effectively ignored. Option D provides the circuit diagram corresponding to this logic.
Match the LIST-I with LIST-II
| LIST-I | LIST-II | ||
| A. | $^1_0n + ^{235}_{92}U \rightarrow ^{140}_{54}Xe + ^{94}_{38}Sr + 2^1_0n$ | I. | Chemical reaction |
| B. | $2H_2+O_2\rightarrow 2H_2O$ | II. | Fusion with +ve Q value |
| C. | $^1_1H+^2_1H \rightarrow ^3_2He + ^1_0n$ | III. | Fission |
| D. | $^1_1H+^1_1H \rightarrow ^2_1H+^0_1e$ | IV. | Fusion with -ve Q value |
Choose the correct answer from the options given below:
Two coherent monochromatic light beams of intensities 4I and 9I are superimposed. The difference between the maximum and minimum intensities in the resulting interference pattern is xI. The value of x is __________
Considering Bohr's atomic model for hydrogen atom :
(A) the energy of H atom in ground state is same as energy of $He^+$ ion in its first excited state.
(B) the energy of H atom in ground state is same as that for $Li^{++}$ ion in its second excited state.
(C) the energy of H atom in ground state is same as that of $He^+$ ion for its ground state.
(D) the energy of $He^+$ ion in its first excited state is same as that for $Li^{++}$ ion in its ground state.
Choose the correct answer from the options given below :
A monochromatic light is incident on a metallic plate having work function $\phi$. An electron, emitted normally to the plate from a point A with maximum kinetic energy, enters a constant magnetic field, perpendicular to the initial velocity of electron. The electron passes through a curve and hits back the plate at a point B. The distance between A and B is:
(Given: The magnitude of charge of an electron is $e$ and mass is $m$, $h$ is Planck's constant and $c$ is velocity of light. Take the magnetic field exists throughout the path of electron)
Match the LIST-I with LIST-II
| LIST-I | LIST-II | ||
| A. | $^1_0n + ^{235}_{92}U \rightarrow ^{140}_{54}Xe + ^{94}_{38}Sr + 2^1_0n$ | I. | Chemical reaction |
| B. | $2H_2+O_2\rightarrow 2H_2O$ | II. | Fusion with +ve Q value |
| C. | $^1_1H+^2_1H \rightarrow ^3_2He + ^1_0n$ | III. | Fission |
| D. | $^1_1H+^1_1H \rightarrow ^2_1H+^0_1e$ | IV. | Fusion with -ve Q value |
Choose the correct answer from the options given below:
Two coherent monochromatic light beams of intensities 4I and 9I are superimposed. The difference between the maximum and minimum intensities in the resulting interference pattern is xI. The value of x is __________
Considering Bohr's atomic model for hydrogen atom :
(A) the energy of H atom in ground state is same as energy of $He^+$ ion in its first excited state.
(B) the energy of H atom in ground state is same as that for $Li^{++}$ ion in its second excited state.
(C) the energy of H atom in ground state is same as that of $He^+$ ion for its ground state.
(D) the energy of $He^+$ ion in its first excited state is same as that for $Li^{++}$ ion in its ground state.
Choose the correct answer from the options given below :
A monochromatic light is incident on a metallic plate having work function $\phi$. An electron, emitted normally to the plate from a point A with maximum kinetic energy, enters a constant magnetic field, perpendicular to the initial velocity of electron. The electron passes through a curve and hits back the plate at a point B. The distance between A and B is:
(Given: The magnitude of charge of an electron is $e$ and mass is $m$, $h$ is Planck's constant and $c$ is velocity of light. Take the magnetic field exists throughout the path of electron)