Normally displacement means that some distance has been travelled.
If you want to get picky, you can say that is you travel in a closed path, the displacement is zero. In such circumstances, when multiple movments are being combined, one makes is clearer by saying that combining several displacements gives the "net displacement."
To get even more picky, we can point out that displacement is a vector defined by the separation of two points. The direction of the displacement vector is the direction of the second point relative to the first and the magnitude of the displacement vector is the magnitude of the distance between the two points. So, since displament is a vector and a vector can have zero length, one can say that you have a zero vector of displacement when no distance has been traveled.
Displacement is different than distance in that distance refers to how much ground an object has covered when in motion. Displacement is how far out of place the object is, or its overall change in position after being moved.
Displacement is a vector quanity that measures the difference between final position and initial position. Distance is a scalar quanity the measures the total length traveled. For example, imagine you begin stationary at any location and walk along the outline of a 100ft circumference circle, returning you to your starting location. Your distance traveled will be 100 feet, your displacement will be 0 due to your initial position and final position being identical.
Well, honey, displacement can definitely be greater than the total distance traveled by a moving object if that object has been doing some crazy zigzagging. Displacement is just the straight-line distance between the starting and ending points, while total distance is the actual path taken. So, if that object has been taking some detours and scenic routes, displacement can definitely end up being greater.
The farthest distance from earth a human being has traveled is 401,056 km, to the moon.
True. The distance traveled is a scalar quantity that only depends on the initial and final positions, regardless of the path taken between them. This is known as the distance traveled being independent of the path.
In a circular motion, the net displacement of an object over one complete revolution is zero because it ends up back where it started. Even though the object may have traveled a certain distance around the circle, its final position is the same as its initial position.
Distance is the scalar value of how far an object has traveled regardless of direction. Displacement is the vector value of how far an object has been displaced, meaning how far is it from where it started. The better way to describe the difference between displacement and distance is here. 1. Displacement is the directed line segment between initial and final position of a moving body. 2. Distance is the total length of path traversed by the moving body irrespective of direction.
The technical answer is that displacement is the vector sum of the distances. An example to illustrate the difference in less technical terms, distance travelled in one direction added to the same distance in the opposite direction will result in the total distance being twice the distance of each leg but the total displacement is 0.
. The distance decreased.
Since miles are a measurement of distance and hours are units of time, you cannot convert from one to the other without more information, such as the speed over which these 470 miles are being traveled.
In kinematics, physical quantities such as displacement, velocity, acceleration, and time are studied to describe and analyze the motion of objects without considering the forces causing the motion. These quantities help understand how objects move and change position over time.
This is impossible. Seconds are a measure of time and feet are a measurement of length.