Force is equal to mass times acceleration, in this case the acceleration due to gravity. Gravity has an acceleration of 9.8 meters per second squared, so the total force is 196 Newton's. (1 Newton = 1 kg meter per second squared)
If we have a force acting on a body and we know what that force is, and we also know that the force is gravity, we can solve because we know the force gravity exerts on a mass. If we take the total force acting on the body and divide it by the force of gravity per one unit of mass, we can find the number of units of mass that cause gravity to act on the object. We have 1033 Newtons of force acting on the object. Gravity pulls down with a force of 9.8 Newtons on 1 kilogram of mass. Our 1033 Newtons divided by 9.8 Newtons per kilogram = 105.41 kilograms
Gravitational Pull, push, or force.
Your question isn't exactly stated correctly, but the result that I believe you are looking for is that, the object will be in Orbit around the Earth. This happens when the Centrifugal Force (outward from the rotation) balances out against the Pull of Gravity (Inward). For a body rotating about the Earth, the inward Force would be the Force of Gravity, which would account for the Centripetal Force. Gravity is 'taking the place of' the piece of string that holds an object in place when it is swung around in a circle.
Of course, the gravitational pull of the earth is the prime factor here. The apple is being pulled to the centre of the earth, but in most cases is blocked by something .Example, the ground. Gravity is pulling everything toward it, but depending on how heavy it is determines how much force that gravity has over the object. For example: Gravity has more control over a car than a helium balloon, because the heavier the object, the more gravitational pull it conducts.
i think its true
The force of gravity acting on an object when it is sitting on the Earth is simply referred to as the object's weight. This force is what keeps the object anchored to the surface of the Earth.
That's usually called the object's "weight". Like say if you're talking about the forces of gravity between you and the Earth, the force of gravity acting on you is your weight on the Earth, and the force of gravity acting on the Earth is the Earth's weight on you, and they're equal.
The force of gravity between the Earth and an object on its surface is what we call the object's "weight". What is not generally appreciated is that the object attracts the Earth toward it with the same force. This means that whatever your weight is on Earth, it's the same as the Earth's weight on you.
The only force acting on an object in freefall is gravity. This force causes the object to accelerate downward towards the Earth.
The force exerted by the earth towards itself,known as the gravitational force is called that gravity is acting on you.
Measuring the force of gravity acting on an object involves quantifying the pull that Earth's gravity exerts on the object. This is typically done using a scale or a balance to determine the object's weight, which is a measure of the gravitational force acting on it. Weight is directly proportional to the force of gravity.
The downward force acting on an object in free fall is Gravity.
The force of gravity acting on an object is determined by the mass of the object and the acceleration due to gravity (9.81 m/s^2 on Earth). The formula to calculate the force of gravity is F = m * g, where F is the force of gravity, m is the mass of the object, and g is the acceleration due to gravity.
The force of gravity acting on an object, which is commonly referred to as the weight of the object, is determined by multiplying the mass of the object by the acceleration due to gravity (9.8 m/s2 on Earth).
The force of gravity acting on an object is directly proportional to its mass. This means that the larger the object, the greater the force of gravity acting upon it.
An object accelerates when falling towards Earth due to the force of gravity acting upon it. Gravity pulls the object down towards the Earth's center, causing its speed to increase as it falls. This acceleration is approximately 9.8 m/s^2 near the Earth's surface, known as the acceleration due to gravity.
The force of gravity acting upon an object depends on the distance from the center of the Earth. Closer objects experience stronger gravitational force due to the inverse square law.