Sure - unless it is a ship or air vessel
On a three dimensional basis yes it can. Fir instance, if an object is moving directly towards or away from you the angular displacement can be zero though the distance displacement changes.
Displacement is only the distance from the starting point. As long as you return to where you started, then you can travel 1.0 x 10^999999999999 miles and still have a displacement of zero.
As, in the velocity-time graph, curves passes through zero means 'when time is zero velocity is zero'. Velocity is time derivative of displacement. So displacement is maximum or minimum when time is zero in position-time graph.
Overall, if she return to the same spot, then there is zero displacement -- they haven't moved.
They are the locations where the amplitudes of the two waves combine destructively. The positive displacement of one wave is exactly matched by the negative displacement of the other so that the overall displacement is zero.
If displacement is not changing as a function of time, then velocity is zero. Velocity is the rate of change of displacement with respect to time, so if there is no change in displacement, the velocity is zero.
Zero Quality
Zero Quality
The distance travelled by a particle cannot be zero when displacement is not zero because unlike distance which is a scalar, displacement is a vector quantity implying that it has both direction and magnitude.
The distance travelled by a particle cannot be zero when displacement is not zero because unlike distance which is a scalar, displacement is a vector quantity implying that it has both direction and magnitude.
Displacement of a straight line is zero...
Displacement is equal to zero when an object returns to its initial position after moving a certain distance. This can happen when an object moves in a closed loop or when its net displacement over a certain period of time is zero.
Sure. The displacement achieved by running or driving around a circular track and ending up where you started is zero.
On a three dimensional basis yes it can. Fir instance, if an object is moving directly towards or away from you the angular displacement can be zero though the distance displacement changes.
Displacement and acceleration are zero at the instant the mass passes through its "rest" position ... the place where it sits motionless when it's not bouncing. Velocity is zero at the extremes of the bounce ... where the expansion and compression of the spring are maximum, and the mass reverses its direction of motion.
Yes, it is possible for displacement to be zero while distance is not. This can happen when an object moves in different directions and its total movement results in a non-zero distance, while the net change in position (displacement) from start to finish is zero.
If what you want to do is calculate the work, you need to multiply the force times the displacement.