That phrase "this graph" is kind of a hint that there was a graph along with this
question in the book that you copied it from. The question refers to that graph,
and can't be answered without it, but you neglected to show it to me, so I don't
stand a chance.
1 minute, 13 seconds.
It usually describes a straight line which passes through the centre of a given shape.
81 km/hr
Yes - but it will be travelling fast ! You will hear the sound of the engines a few seconds after the plane passes overhead.
Completely ignore the first train.The second train passes the pole in 8sec.In this 8 seconds the train drove 120 meters.So the train has a speed of 15meters per second (120/8=15).Answer: 15 (meters / second) = 54 km/h
When a water wave passes, a buoy will move up and down in a circular motion. The buoy follows the wave pattern, rising as the wave crest passes and sinking as the wave trough passes. This motion is a combination of vertical and horizontal movement as the wave energy is transferred to the buoy.
The term that describes the rate at which charge passes a point in a circuit is "current," which is typically measured in amperes (A).
This describes motion, which involves an object's change in position relative to a reference point as time passes. It can be described in terms of distance traveled, speed, and direction of movement. Motion is fundamental to understanding concepts like velocity and acceleration in physics.
The buoy moves up and down as the water passes beneath it.
1 minute, 13 seconds.
The term that describes the amount of charge that passes a point in a circuit each second is current, measured in amperes (A).
The term that best describes the path of movement of water particles in a wave is circular. Water particles in a wave move in a circular motion as the wave passes through, with particles moving in a clockwise or counterclockwise direction depending on the wave's characteristics.
it goes from crest to trough in a wave like motion. this is the right answer
100
The frequency of the wave is 19 Hz, which is calculated by dividing the number of times the wave passes the point by the time it takes: 57 passes / 3.0 seconds = 19 Hz.
The frequency of the wave is 103 Hz. This is calculated by dividing the number of times the wave passes the point (412) by the time it takes (4.0 seconds).
As the wave passes through, water particles move in an orbital motion. The particles move in a circular pattern, with the energy of the wave being transferred horizontally as the wave travels. This orbital motion causes the water to rise and fall as the wave passes through.