a = v^2 / r
where:
a = centripetal acceleration ((metres / second) / second)
v = orbital velocity (metres/second)
r = orbital radius from earth centre of gravity (metres)
the moon
The natural satellite seen from Earth
yes
October, 1957.
The force that causes Earth's centripetal motion is gravity. Gravity pulls Earth towards the Sun, causing it to orbit in a circular path around the Sun. This centripetal force keeps Earth moving in a curved path rather than in a straight line.
The centripetal acceleration experienced at the equator due to the Earth's rotation is approximately 0.034 m/s.
A ball on a string is an example of centripetal acceleration
Satillite imagining is a process where a satelitte in space is sending beams to various places on earth. these later take pictures and send it to earth
The gravitational force between Earth and the Sun provides the centripetal force needed to keep Earth in orbit. This force keeps Earth moving in a circular path around the Sun.
Centripetal force acting on an orbiting object is unbalanced since the object is being accelerated.Velocity is continually changing direction if not speed. This means an orbiting object is accelerating and the direction of acceleration is toward the center. In fact, centripetal means "center seeking."A person at rest on the surface of the Earth is being acted upon by a centripetal force (toward the center of the Earth, that is, down) which is exactly equal and opposite to the spring force of the Earth's matter pushing up. Thus, in this case, the centripetal force is balanced.The previous answer (below) is generally incorrect.No,because when a body revolves round an orbit,its CENTRIPETAL force is balanced by the WEIGHT of the body!thank you!!
It can be. A centripetal force is not fundamental (such as gravity), it is the generic name given to a force that keeps objects moving in orbits (or circles). In the case of the Sun and the Earth, gravity is the centripetal force that keeps the Earth in orbit around the Sun.
When Earth orbits the Sun, the centripetal force acting on it is provided by the gravitational attraction between the Earth and the Sun. This gravitational force keeps the Earth in its elliptical orbit, constantly pulling it toward the Sun. The balance between this gravitational force and the Earth's inertia, due to its orbital velocity, allows for a stable orbit. Essentially, the centripetal force is the component of gravity that acts to keep Earth in its circular path around the Sun.