Two blocks A and B of mass 2 kg and 4 kg...

Two blocks A and B of mass 2 kg and 4 kg respectively are placed on a smooth inclined plane and 2 kg block is pushed by a force F acting parallel to the plane as shown. If N be the magnitude of contact force applied on B by A, which of the following is/are correct?

if F = 0 N, N= 10 N

if F = 15 N, N=10 N

IF F = 30 N, N=20 N

if F =45N,N=30 N

Text Solution

Verified by Experts

The correct Answer is:

B, C, D

Topper's Solved these Questions

NEWTON'S LAWS OF MOTION & FRICTION
ALLEN|Exercise EXERCISE (JM)|6 Videos
NEWTON'S LAWS OF MOTION & FRICTION
ALLEN|Exercise EXERCISE (JA)|4 Videos
NEWTON'S LAWS OF MOTION & FRICTION
ALLEN|Exercise EXERCISE (O-1)|51 Videos
MOTION IN A PALNE
ALLEN|Exercise SOLVED EXAMPLE|28 Videos
NEWTONS LAWS OF MOTION
ALLEN|Exercise EXERCISE-III|28 Videos

Similar Questions

Explore conceptually related problems

Three blocks are placed at rest on a smooth inclined plane with force acting on m_(1) parallel to the inclined plane. Find the contact force between m_(2) and m_(3)

Two block of masses m and 2m are kept on a smooth inclined plane and the system is pushed using force 3mg as shown. Find the contact force between those two blocks

Three blocks A , B and C of masses 4kg , 2kg and 1kg respectively are in contact on a frictionless surface, as shown. If a force of 14N is applied on the 4kg block, then the contact force between A and B is.

Two blocks A and B of masses 2 kg and 8 kg respectively are kept in contact and pressed against a roguh vertical wall by applying a horizontal force F = 50 N as shown, The frictional force acting between the two blocks is

A block is placed on a smooth inclined plane as shown . For what value of horizontal force F, the block will remain at rest ?

A body of mass 1kg lies on smooth inclined plane. The block of mass m is given force F=10 N horizontally as shown. The magnitude of net normal reaction on the block is:

A block of mass 3kg is at rest on a rough inclined plan as shown in the Figure. The magnitude of net force exerted by the surface on the block will be

Two blocks A and B of masses 5 kg and 2 kg respectively connected by a spring of force constant = 100Nm^(-1) are placed on an inclined plane of inclined 30^(@) as shown in figure If the system is released from rest

ALLEN-NEWTON'S LAWS OF MOTION & FRICTION-EXERCISE (O-2)

Consider a block suspended from a light string as shown in the digure....
Text Solution
|
A block of weight 9.8N is placed on a table. The table surface exerts...
Text Solution
|
A block of mass m is suspended from a fixed support with the help of a...
Text Solution
|
A block A and wedge B connected through a string as shown. The wedge B...
Text Solution
|
Two blocks A and B of mass 2 kg and 4 kg respectively are placed on a ...
Text Solution
|
A block is kept on a rough surface and applied with a horizontal force...
Text Solution
|
A block placed on a rough horizontal surface is pushed with a force F ...
Text Solution
|
A block is placed over a plank. The coefficient of friction between th...
Text Solution
|
A block is released from rest from point on a rough inclined place of ...
Text Solution
|
In the given figure both the bocks have equal mass. When the thread is...
Text Solution
|
A block of mass m is placed on a smooth horizontal floor is attached t...
Text Solution
|
A block of mass m is placed on a smooth horizontal floor is attached t...
Text Solution
|
A block of mass m is placed on a smooth horizontal floor is attached t...
Text Solution
|
When F = 2N, the frictional force between 5 kg block and ground is
Text Solution
|
When F = 2N, the frictional force between 10 kg block 5 kg block is
Text Solution
|
The maximum F which will not cause motion of any of the blocks is
Text Solution
|
The maximum acceleration of 5 of kg block is :-
Text Solution
|
The acceleration of 10 kg block when F = 30 N is
Text Solution
|
In the figure shown ,acceleration of 1 is x (upwards). Acceleration of...
Text Solution
|
Velocity of there particless A.B and C varies with time t as , v(A) =(...
Text Solution
|