I'm not sure exactly what you are asking, but centripetal force is just a name given to any force that causes circular motion. Swing a rock on the end of a string and the string tension is the centripetal force. Drive a car around a flat circular track and the friction between the tires and the road is the centripetal force. Put a satellite in orbit and gravity is the centripetal force.
The force that keeps an object moving in a circle or an arc is called a centripetal force. Gravity is an example of centripetal force that keeps a satellite in a circular orbit around a planet. Another example is when you ride on a merry-go-round - the rotating play structure imparts a centripetal force upon you, forcing you to also travel in a circle.
It's the gravitational effect of the Sun combined with the inertia of the planets. Their inertia (Newton's first law of motion) would make the planets move in straight lines, but the gravitational force makes them follow elliptical paths and they orbit the Sun.
centripetal acceleration counters the acceleration due to gravity creating an equilibrium. the EXACT same way water wont fall out of the bucket if you spin it fast enough. Gravity is also a field and decays as the distance between the two objects increases. GMm/r^2
No; gravity will continue acting on your body. If there was no force acting on your body while in space (let's say an orbiting satellite), the satellite would fly out of Earth's orbit and just wander off forever, but that doesn't happen - so gravity has to be acting on the satellite and your body as well!
The acceleration is caused by the force of gravity on the sled combined with the force you exert on the sled by pushing it.
Artificial gravity is created by simulating the effects of gravity through centrifugal force. Centripetal force is the inward force that keeps an object moving in a circular path. In the context of artificial gravity, centripetal force is what creates the sensation of gravity by pushing objects towards the center of rotation.
Well it is orbiting and it is caused by gravity, centripetal and centrifugal forces
The centripetal force acts towards the center of the circular path followed by the satellite, allowing it to maintain its orbit. In the case of a satellite orbiting Earth, the force of gravity provides the centripetal force required to keep the satellite in its orbit.
For circular motion to occur, there must be a centripetal force( a force that is always directed towards the centre of the circle). The centripetal force is defined as F = mv2/r Where F is the centripetal force, m is the mass of the orbiting body, v is the velocity of the body, and r is the distance to the centre of the circle. If you whirl a conker above your head, the centripetal force is provided by the tension of the string. For a planet orbiting the sun, the centripetal force is provided by gravity.
Gravity provides the centripetal force that keeps objects in orbit. It acts as a "pull" towards the center of the orbit, allowing the object to continuously move in a circular or elliptical path around the larger body, such as a planet or star.
Examples of centripetal forces include gravity in orbiting satellites and tension in a spinning yo-yo. Centrifugal forces can be seen in the throwing of a ball from a moving car or the water sticking to the walls of a rotating bucket.
The simplest and best answer to that question is: -- Without gravity, there would be no orbits. -- Once you completely understand gravity, you can figure out everything there is to know about orbits, because it all comes from the behavior of gravity.
Gravity itself cannot be seen, as it is a force of attraction between objects with mass. However, its effects can be observed, such as objects falling to the ground or planets orbiting around the sun.
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.
Gravity can be simulated in an orbiting spaceship through methods like rotation, producing centrifugal force that mimics the effects of gravity. This can create a feeling of weight and stability for astronauts on board. Additionally, there are artificial gravity systems that use acceleration or magnetism to replicate gravitational forces in space.
Gravity is what keeps objects in orbit around a planet from flying off into space. The gravitational pull between the planet and the objects creates a centripetal force that balances the outward motion, keeping them in a stable orbit.
In a sense, yes. There are binary star systems. These consist of two stars orbiting each other, or more properly, orbiting their barycenter, their combined center of gravity. You might think of each of them as the other's satellite.