Have a query? Ask a Tutor!!

Access to best educators and exclusive paper discussions

Offsite Campus Turito Championship

Can’t find what you’re looking for?

Our tutors are from top schools around the world, and they are waiting for you 24/7, anytime, anywhere.

Homework- One to One Solutions
Understand concepts to solve better
Get your doubts solved instantly

Physics-

General

Easy

Question

A projectile of mass m is fired with velocity v from a point P as shown. Neglecting air resistance, the magnitude of the changed in momentum between the points P and arriving at Q is

Zero
$\frac{1}{2} m v$
$m v \sqrt{2}$
2 mv

The correct answer is: $m v square root of 2$

Related Questions to study

Blocks A and B of equal masses are arranged as shown in figure. The surface of A is smooth while B is rough and has a coefficient of friction 0.1 with surface. The block A moves with speed 10 m/s and collides with B. The collision is perfectly elastic. Find the distance moved by B before it comes to rest.

Blocks A and B of equal masses are arranged as shown in figure. The surface of A is smooth while B is rough and has a coefficient of friction 0.1 with surface. The block A moves with speed 10 m/s and collides with B. The collision is perfectly elastic. Find the distance moved by B before it comes to rest.

physics-General

A ball moving with velocity u collides with two identical balls placed in the track of first ball, after the elastic collision,

A ball moving with velocity u collides with two identical balls placed in the track of first ball, after the elastic collision,

physics-General

Ball 1 collides with another identical ball 2 at rest as shown in figure. For what value of coefficient of restitution e, the velocity of second ball becomes two times that of 1 after collision

Ball 1 collides with another identical ball 2 at rest as shown in figure. For what value of coefficient of restitution e, the velocity of second ball becomes two times that of 1 after collision

physics-General

parallel

A bullet of mass 20 g travelling horizontally with a speed of 500 m/s passes through a wooden block of mass 10.0 kg initially at rest on a surface. The bullet emerges with a speed of 100 m/s and the block slides 20 cm on the surface before coming to rest, the coefficient of friction between the block and the surface. $(g = 10 m / s^{2})$

A bullet of mass 20 g travelling horizontally with a speed of 500 m/s passes through a wooden block of mass 10.0 kg initially at rest on a surface. The bullet emerges with a speed of 100 m/s and the block slides 20 cm on the surface before coming to rest, the coefficient of friction between the block and the surface. $(g = 10 m / s^{2})$

physics-General

Let f : R → R be a function defined by f(x) = $\frac{e^{\cos x} - e^{- \sin x}}{e^{\sin x} + e^{- \sin x}}$ , then

Let f : R → R be a function defined by f(x) = $\frac{e^{\cos x} - e^{- \sin x}}{e^{\sin x} + e^{- \sin x}}$ , then

The variation of potential energy of harmonic oscillator is as shown in figure. The spring constant is

The variation of potential energy of harmonic oscillator is as shown in figure. The spring constant is

physics-General

parallel

As shown in figure, a simple harmonic motion oscillator having identical four springs has time period

As shown in figure, a simple harmonic motion oscillator having identical four springs has time period

physics-General

A man having a wrist watch and a pendulum clock rises on a $T V$ tower. The wrist watch and pendulum clock by chance fall from the top of the tower. Then

A man having a wrist watch and a pendulum clock rises on a $T V$ tower. The wrist watch and pendulum clock by chance fall from the top of the tower. Then

physics-General

A metal rod of length $L$ and mass $m$ is pivoted at one end. A thin disk of mass $M$ and radius $R left parenthesis less than L right parenthesis$ is attached at its centre to the free end of the rod. Consider two ways the disc is attached case $A$ - the disc is not free to rotate about its centre and case $B$ – the disc is free to rotate about its centre. The rod-disc system performs SHM in vertical plane after being released from the same displaced position. Which of the following statement(s) is/are true?

A metal rod of length $L$ and mass $m$ is pivoted at one end. A thin disk of mass $M$ and radius $R left parenthesis less than L right parenthesis$ is attached at its centre to the free end of the rod. Consider two ways the disc is attached case $A$ - the disc is not free to rotate about its centre and case $B$ – the disc is free to rotate about its centre. The rod-disc system performs SHM in vertical plane after being released from the same displaced position. Which of the following statement(s) is/are true?

physics-General

parallel

Let f: R → R be a function defined by f(x) = – $fraction numerator vertical line x vertical line to the power of 3 end exponent plus vertical line x vertical line over denominator 1 plus x to the power of 2 end exponent end fraction$ , then the graph of f(x) lies in the –

Let f: R → R be a function defined by f(x) = – $fraction numerator vertical line x vertical line to the power of 3 end exponent plus vertical line x vertical line over denominator 1 plus x to the power of 2 end exponent end fraction$ , then the graph of f(x) lies in the –

Two identical balls $A$ and $B$ each of mass $0.1 blank k g$ are attached to two identical massless springs. The spring mass system is constrained to move inside a rigid smooth pipe bent in the form of circle as shown in the figure. The pipe is fixed in a horizontal plane. The centres of the balls can move in a circle of radius $0.06 blank m.$ Each spring has a natural length of $0.06 pi blank m$ and force constant $0.1 N divided by m.$ Initially both the balls are displaced by an angle $theta equals pi divided by 6$ radian with respect to the diameter $P Q$ of the circle and released from rest. The frequency of oscillation of the ball $B$ is

Two identical balls $A$ and $B$ each of mass $0.1 blank k g$ are attached to two identical massless springs. The spring mass system is constrained to move inside a rigid smooth pipe bent in the form of circle as shown in the figure. The pipe is fixed in a horizontal plane. The centres of the balls can move in a circle of radius $0.06 blank m.$ Each spring has a natural length of $0.06 pi blank m$ and force constant $0.1 N divided by m.$ Initially both the balls are displaced by an angle $theta equals pi divided by 6$ radian with respect to the diameter $P Q$ of the circle and released from rest. The frequency of oscillation of the ball $B$ is

physics-General

A ball of mass $open parentheses m close parentheses 0.5 blank k g$ is attached to the end of a string having length $open parentheses L close parentheses 0.5 blank m.$ The ball is rotated on a horizontal circular path about vertical axis. The maximum tension that the string can bear is $324 blank N.$ The maximum possible value of angular velocity of ball (in radian/s) is

A ball of mass $open parentheses m close parentheses 0.5 blank k g$ is attached to the end of a string having length $open parentheses L close parentheses 0.5 blank m.$ The ball is rotated on a horizontal circular path about vertical axis. The maximum tension that the string can bear is $324 blank N.$ The maximum possible value of angular velocity of ball (in radian/s) is

physics-General

parallel

Two blocks each of mass $m equals 2 k g$ placed on rough horizontal surface connected by massless string as shown in the figure and variable horizontal force $F equals t N$ (which t is time) applied then the tension T in string versus time graph is

Two blocks each of mass $m equals 2 k g$ placed on rough horizontal surface connected by massless string as shown in the figure and variable horizontal force $F equals t N$ (which t is time) applied then the tension T in string versus time graph is

physics-General

A point moves along the arc of a circle of radius R. Its speed varies as $v equals a square root of s comma$ where a is constant and s is the arc length travelled by the particle. The angle $alpha$ between the vector of total acceleration and the vector of velocity is given by

A point moves along the arc of a circle of radius R. Its speed varies as $v equals a square root of s comma$ where a is constant and s is the arc length travelled by the particle. The angle $alpha$ between the vector of total acceleration and the vector of velocity is given by

physics-General

Consider the situation shown in figure. The horizontal surface below the bigger block is smooth. The coefficient of friction between the blocks is $mu.$ Find the minimum force F that can be applied in order to keep the smaller blocks at rest with respect to the bigger block.

Consider the situation shown in figure. The horizontal surface below the bigger block is smooth. The coefficient of friction between the blocks is $mu.$ Find the minimum force F that can be applied in order to keep the smaller blocks at rest with respect to the bigger block.

physics-General

parallel

card img

With Turito Academy.

card img

With Turito Foundation.

card img

Get an Expert Advice From Turito.

Turito Academy

card img

With Turito Academy.

Test Prep

card img

With Turito Foundation.