Solve
Guides
0
Question
Two block of masses $$3\ kg$$ and $$6\ kg$$ rest on a horizontal frictionless surface. The $$3\ kg$$ block is attached to a spring with a force constant $$k=900\ N/m$$ which is compressed $$2\ m$$ initially from its equilibrium position. When $$3\ kg$$ mass is released, it strikes the $$6\ kg$$ mass and the two stick together in an inelastic collision.
The common velocity of the blocks after collision is:
Open in App
Solution
Verified by Toppr
Correct option is A. $$10\ m/s$$
Was this answer helpful?
1
Similar Questions
Q1
Two block of masses $$3\ kg$$ and $$6\ kg$$ rest on a horizontal frictionless surface. The $$3\ kg$$ block is attached to a spring with a force constant $$k=900\ N/m$$ which is compressed $$2\ m$$ initially from its equilibrium position. When $$3\ kg$$ mass is released, it strikes the $$6\ kg$$ mass and the two stick together in an inelastic collision.
The common velocity of the blocks after collision is:
The common velocity of the blocks after collision is:
View Solution
Q2
Two block of masses $$3\ kg$$ and $$6\ kg$$ rest on a horizontal frictionless surface. The $$3\ kg$$ block is attached to a spring with a force constant $$k=900\ N/m$$ which is compressed $$2\ m$$ initially from its equilibrium position. When $$3\ kg$$ mass is released, it strikes the $$6\ kg$$ mass and the two stick together in an inelastic collision.
The amplitude of resulting oscillation after the collision is:
The amplitude of resulting oscillation after the collision is:
View Solution
Q3
Two block of masses $$3\ kg$$ and $$6\ kg$$ rest on a horizontal frictionless surface. The $$3\ kg$$ block is attached to a spring with a force constant $$k=900\ N/m$$ which is compressed $$2\ m$$ initially from its equilibrium position. When $$3\ kg$$ mass is released, it strikes the $$6\ kg$$ mass and the two stick together in an inelastic collision.
The velocities of a particle executing S.H.M. are $$30\ cm/s$$ and $$16\ cm/s$$ when its displacements are $$8\ cm$$ and $$15\ cm$$ from the equilibrium position. Then its amplitude of oscillation in $$cm$$ is
The velocities of a particle executing S.H.M. are $$30\ cm/s$$ and $$16\ cm/s$$ when its displacements are $$8\ cm$$ and $$15\ cm$$ from the equilibrium position. Then its amplitude of oscillation in $$cm$$ is
View Solution
Q4
Two blocks of masses 3 kg and 6 kg rest on a horizontal smooth surface. The 3 kg block is attached to a spring with a force constant k=900Nm−1 which is compressed 2m from beyond the equilibrium position. The 6 kg mass is at rest at 1m from mean position. 3kg mass strikes the 6kg mass and the two stick together.
View Solution
Q5
Two blocks of masses of 3 kg and 6 kg rest on a horizontal smooth surface. The 3 kg block is attached to a spring with a force constant k=900Nm−1 which is compressed 2 m beyond the equilibrium position. The 6 kg mass is at rest at 1 m from mean position, 3 kg mass strikes the 6 kg mass and the two stick together
View Solution