List of top Physics Questions asked in VITEEE

The magnetic field in a travelling electromagnetic wave has a peak value of 20 nT. The peak value of electric field strength is
The length of elastic string, obeying Hooke�s law is $\ell_{1}$ metres when the tension $4N$ and $\ell_{2}$ metres when the tension is $5N$. The length in metres when the tension is $9N$ is -
The horizontal component of the earth?s magnetic field is $3.6 \times 10^{-5}$ tesla where the dip angle is $60^{\circ}$. The magnitude of the earth?s magnetic field is
In a common emitter transistor amplifier $\beta = 60, \,R_o = 5000\, \Omega$ and internal resistance of a transistor is $500 \,\Omega$Voltage amplification. The voltage amplification of amplifier will be
In the given circuit the reading of voltmeter $V_1$ and $V_2$ are $300$ volt each. The reading of the voltmeter $V_3$ and ammeter $A$ are respectively
The value of $\tan (90-\theta)$ in the graph gives :
Which of the following are not electromagnetic waves?
A vessel of depth 2d cm is half filled with a liquid of refractive index $\mu_{1}$ and the upper half with a liquid of refractive index$\mu_{2}$. The apparent depth of the vessel seen perpendicularly is
A charged particle (electron or proton) is introduced at the origin (? = 0, ? = 0, ? = 0) with a given initial velocity $\vec{v}$. A uniform electric field $\vec{E}$ and a uniform magnetic field $\vec{B}$ exist everywhere. The velocity $\vec{v}$, electric field $\vec{E}$ and magnetic field $\vec{B}$ are given in columns 1, 2 and 3, respectively. The quantities $?_0 , ?_0$ are positive in magnitude.
Column 1 Column 2 Column 3
(I) Electron with $\vec{v}=2 \frac{E_{0}}{B_{0}}\hat{x}$ (i) $\vec{E}=-E_{0}\hat{z}$ (P) $\vec{B}=-B_{0}\hat{x}$
(II)Electron with $\vec{v}= \frac{E_{0}}{B_{0}}\hat{y}$ (ii) $\vec{E}=-E_{0}\hat{y}$ (Q) $\vec{B}=-B_{0}\hat{x}$
(III) Proton with $\vec{v}=0$ (iii) $\vec{E}=-E_{0}\hat{x}$ (R) $\vec{B}=-B_{0}\hat{y}$
(IV)Proton with $\vec{v}=2 \frac{E_{0}}{B_{0}}\hat{x}$ (iv) $\vec{E}=-E_{0}\hat{x}$ (S) $\vec{B}=-B_{0}\hat{z}$
In which case will the particle move in a straight line with constant velocity?
A hollow insulated conduction sphere is given a positive charge of 10 $\mu$C. What will be the electric field at the centre of the sphere if its radius is 2 metres?
Two capacitors $C_{1}$ and $C_{2}$ in a circuit are joined as shown in figure. The potentials of points A and B are $V_{1}$ and $V_{2}$ respectively. Then the potential of point D will be
Two mercury drops (each of radius r) merge to form a bigger drop. The surface energy of the bigger drop, if T is the surface tension, is
Which of the following is a self adjusting force?
A prism has a refracting angle of 60?? When placed in the position of minimum deviation, it produces a deviation of 30?? The angle of incidence is
An alternating voltage of 220 V, 50 Hz frequency is applied across a capacitor of capacitance 2 $\mu$F. The impedence of the circuit is
A smooth sphere of mass M moving with velocity u directly collides elastically with another sphere of mass m at rest. After collision, their final velocities are V and v respectively. The value of v is
The current in a coil of L = 40 mH is to be increased uniformly from 1A to 11 A in 4 milli sec. The induced e.m.f. will be
Resistances 1 $\Omega$,2 $\Omega$ and 3 $\Omega$ are connected to form a triangle.If a 1.5 V cell of negligible internal resistance is connected across the 3 $\Omega$ resistor, the current flowing through this resistor will be
Kerosene oil rises up in a wick of a lantern because of
A (+)vely charged particle is placed near an infinitely long straight conductor where there is zero gravity. Then
Two point dipoles $p \hat{k}$ and $\frac{p}{2} \hat{k}$ are located at $(0,0,0)$ and $(1\, m , 0,2\, m )$ respectively. The resultant electric field due to the two dipoles at the point $(1 \,m , 0,0)$ is
In shown fig, the circular loop of wire is moved with velocity towards the infinite current carrying wire. Then
Hologram is based on phenomenon of
If $i_1 = 3 \, \sin \, \omega t$ and $i_2 = 4 \, \cos \, \omega t$, then $i_3$ is
For a current carrying inductor, emf associated is 20mV. Now, current through it changes from 6A to 2A in 2s. The coefficient of mutual inductance is