Home
Class 11
PHYSICS
A block of mass m is attached to a sprin...

A block of mass m is attached to a spring of spring constant k is free to oscillate with angular velocity `omega` in a horizontal plane without friction or clamping. It is pulled to a distance `x_(0)` and pushed towards the centre with a velocity `v_(0)` at time t=0. the ammplitude of oscillationsin terms of `omega,x_(0) and v_(0)` is

Text Solution

Verified by Experts

x= A `cos (omega x + theta) `, velocity , `(dx)/(dt) =- A omega sin(omegat + theta)`
When t=0 , `x=x_0 and (dx)/(dt) = -v_0`
`therefore x_0 = A cos theta " "……..(i)`
`-v_0 = - A omega theta ` (or) ` A sin theta = v_0//omega " "......(ii)`
Squaring and adding (i) and (ii) , we get , `A^2 (sin^2 theta + cos^2 theta) = (v_0^2 //omega^2) + x_0^2 , A= [v_0^2 .//omega^2 + x_0^2J^(1//2)]`
Promotional Banner

Similar Questions

Explore conceptually related problems

A mass attached to a spring is free to oscillate, with angular velocity omega , in a horizontal plane without friction or damping. It is pulled to a distance x_(0) and pushed towards the centre with a velocity v_(0) at time t=0 . Determine the amplitude of the resulting oscillations in terms of the parameters omega, x_(0)and v_(0) .

A mass attached to a spring is free to oscillate, with angular velocity omega , in a horizontal plane without friction or damping. It is pulled to a distance x_(0) and pushed towards the centre with a velocity v_(0) at time t=0 . Determine the amplitude of the resulting oscillations in terms of the parameters omega, x_(0)and v_(0) .

A block of mass 0.1 kg attached to a spring of spring constant 400 N/m is putted rightward from x_(0)=0 to x_(1)=15 mm. Find the work done by spring force.

a block of mass 0.1 kg attached to a spring of spring constant 400 N/m pulled horizontally from x=0 to x_1 =10 mm. Find the work done by the spring force

A block of mass m is attached to a cart of mass 4m through spring of spring constant k as shown in the figure. Friction is absent everywhere. The time period of oscillations of the system, when spring is compressed and then released, is

A particle of mass (m) is attached to a spring (of spring constant k) and has a natural angular frequency omega_(0) . An external force R(t) proportional to cos omegat(omega!=omega_0) is applied to the oscillator. The time displacement of the oscillator will be proportional to.

A block of mass m is attached to a frame by a light spring of force constant k. The frame and block are initially at rest with x = x_(0) , the natural length of the spring. If the frame is given a constant horizontal accelration a_(0) towards left, determine the maximum velocity of the block relative to the frame (block is free to move inside frame). Ignore any friction.

A mass of 2kg is attached to the spring of spring constant 50Nm^(-1) . The block is pulled to a distance of 5 cm from its equilibrium position at x=0 on a horizontal frictionless surface from rest at t=0. Write the expression for its displacement at anytime t.

A mass of 2kg is attached to the spring of spring constant 50Nm^(-1) . The block is pulled to a distance of 5 cm from its equilibrium position at x=0 on a horizontal frictionless surface from rest at t=0. Write the expression for its displacement at anytime t.

A block A of mass m connected with a spring of force constant k is executing SHM. The displacement time equation of the block is x= x_(0) + a sinomegat . An identical block B moving towards negative x -axis with velocity v_(0) collides elastically with block A at time t=0. Then