2 colliding particles can change their direction of motion
3 the effect of the external force is not considered
4 linear momentum is conserved
Explanation:
Work, Energy and Power
268623
In one-dimensional elastic collision, the relative velocity of approach before collision is equal to
1 relative velocity of separation after collision
2 'e' times relative velocity of separation after collision
3 \(1 / e^{\prime}\) ' times relative velocity of separation after collision
4 sum of the velocities after collision
Explanation:
Work, Energy and Power
268624
Two identical bodies moving in opposite direction with same speed, collide with each other. If the collision is perfectly elastic then
1 after the collision both comes to rest
2 after the collision first comes to rest and second moves in the opposite direction with same speed.
3 after collision they recoil with same speed
4 both and 1 and 2
Explanation:
Work, Energy and Power
268625
A body of mass ' \(m\) ' moving with certain velocity collides with another identical body at rest. If the collision is perfectly elastic and after the collision both the bodies moves
2 colliding particles can change their direction of motion
3 the effect of the external force is not considered
4 linear momentum is conserved
Explanation:
Work, Energy and Power
268623
In one-dimensional elastic collision, the relative velocity of approach before collision is equal to
1 relative velocity of separation after collision
2 'e' times relative velocity of separation after collision
3 \(1 / e^{\prime}\) ' times relative velocity of separation after collision
4 sum of the velocities after collision
Explanation:
Work, Energy and Power
268624
Two identical bodies moving in opposite direction with same speed, collide with each other. If the collision is perfectly elastic then
1 after the collision both comes to rest
2 after the collision first comes to rest and second moves in the opposite direction with same speed.
3 after collision they recoil with same speed
4 both and 1 and 2
Explanation:
Work, Energy and Power
268625
A body of mass ' \(m\) ' moving with certain velocity collides with another identical body at rest. If the collision is perfectly elastic and after the collision both the bodies moves
2 colliding particles can change their direction of motion
3 the effect of the external force is not considered
4 linear momentum is conserved
Explanation:
Work, Energy and Power
268623
In one-dimensional elastic collision, the relative velocity of approach before collision is equal to
1 relative velocity of separation after collision
2 'e' times relative velocity of separation after collision
3 \(1 / e^{\prime}\) ' times relative velocity of separation after collision
4 sum of the velocities after collision
Explanation:
Work, Energy and Power
268624
Two identical bodies moving in opposite direction with same speed, collide with each other. If the collision is perfectly elastic then
1 after the collision both comes to rest
2 after the collision first comes to rest and second moves in the opposite direction with same speed.
3 after collision they recoil with same speed
4 both and 1 and 2
Explanation:
Work, Energy and Power
268625
A body of mass ' \(m\) ' moving with certain velocity collides with another identical body at rest. If the collision is perfectly elastic and after the collision both the bodies moves
2 colliding particles can change their direction of motion
3 the effect of the external force is not considered
4 linear momentum is conserved
Explanation:
Work, Energy and Power
268623
In one-dimensional elastic collision, the relative velocity of approach before collision is equal to
1 relative velocity of separation after collision
2 'e' times relative velocity of separation after collision
3 \(1 / e^{\prime}\) ' times relative velocity of separation after collision
4 sum of the velocities after collision
Explanation:
Work, Energy and Power
268624
Two identical bodies moving in opposite direction with same speed, collide with each other. If the collision is perfectly elastic then
1 after the collision both comes to rest
2 after the collision first comes to rest and second moves in the opposite direction with same speed.
3 after collision they recoil with same speed
4 both and 1 and 2
Explanation:
Work, Energy and Power
268625
A body of mass ' \(m\) ' moving with certain velocity collides with another identical body at rest. If the collision is perfectly elastic and after the collision both the bodies moves