no we cannot
Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.
Yes, weight depends on the gravity of the planet. The weight of an object is different on a planet with a different gravity. An object has zero weight in outer space. No! An object does not have zero weight in outer space. Why? Because gravity exists in outer space.
In zero gravity, an object will typically stay in place if it is not acted upon by any external forces. If an external force is applied, the object may move in the direction of that force. Objects can float or move about freely in zero gravity depending on their initial state.
Weight is the force exerted on an object due to gravity. Without gravity, there would be no weight experienced by an object.
In classical physics, weight is the force exerted on an object due to gravity. If an object has zero mass, it would not experience weight as weight is proportional to mass. So, for a body to have zero weight, it would need to have zero mass.
Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.
Yes, weight depends on the gravity of the planet. The weight of an object is different on a planet with a different gravity. An object has zero weight in outer space. No! An object does not have zero weight in outer space. Why? Because gravity exists in outer space.
when object fall free like at centre of earth that we call freefall with zero gravity.
In zero gravity, an object will typically stay in place if it is not acted upon by any external forces. If an external force is applied, the object may move in the direction of that force. Objects can float or move about freely in zero gravity depending on their initial state.
Weight is the force exerted on an object due to gravity. Without gravity, there would be no weight experienced by an object.
In classical physics, weight is the force exerted on an object due to gravity. If an object has zero mass, it would not experience weight as weight is proportional to mass. So, for a body to have zero weight, it would need to have zero mass.
In zero gravity, inertia would remain the same as in normal gravity. Inertia is a property of a body that causes it to resist changes in its motion, regardless of the presence or absence of gravity. Thus, objects in zero gravity would still exhibit the same resistance to changes in motion as they would in a gravitational environment.
The weight of an object can be almost zero in space or during free fall because weight is the force of gravity acting on an object's mass. In the absence of gravity or when experiencing weightlessness, objects do not feel the gravitational force, resulting in a weight close to zero.
Zero gravity refers to the phenomenon experienced in space where the effects of gravity are greatly reduced, making objects and individuals appear weightless. This occurs when an object is in free fall, such as in orbit around Earth. Objects can still have weight in zero gravity, but they do not feel the force of gravity acting upon them.
search this: google zero gravity click: Google Gravity - Mr. doob
The weight of the object causes gravity to take the object falling
To make the momentum of an object zero, you need to ensure that the object is at rest or its velocity is zero. This can be achieved by balancing the forces acting on the object, such that the net force is zero and the object does not accelerate. In simple terms, if the initial momentum of the object is non-zero, you can make it zero by applying an equal and opposite force to cancel out the momentum.