Wiki User
∙ 13y agoIt is easier to push a moving object than an object of the same mass because the weight on the moving object is less and out more.... I know this doesn't quite make sense but email me at oliviabastianich@Gmail.com for a better explenation... i will help in the next 12 hours!
Wiki User
∙ 13y agoLarge mass
The object's mass is the same wherever it is. Mass doesn't change. What changes is the object's weight.The weight depends on what other mass happens to be nearby.When you know the object's weight on earth, multiply that by 0.1633 to find its weight on the moon.If you don't need it that close, it might be easier to just divide the earth weight by 6.
If it is placed at a point where the force of gravity is such that it would accelerate the body at 1 ms-2.
E=mc2 ; E=energy m=mass c=speed of light. It simply means that energy and mass are different manifestion of the same thing. Energy can the converted into mass and vice versa. For example, a stationary proton and a moving one don't have the same mass, because the moving proton has Kinetic Energy which is equivalent to a small quantity of mass.
The new speed for the combined masses will be one-half the original velocity of the moving spaceship, since the momentum is applied to a mass twice as large.
A stationary object has zero momentum since momentum is the product of an object's mass and its velocity. In this case, since the object is not moving, its momentum is zero.
No, a stationary object does not have momentum because momentum is the product of an object's mass and its velocity. If an object is not moving (velocity is zero), then its momentum will also be zero.
A pushing or pulling force will cause a stationary object to start moving in the direction of the force. The object will accelerate depending on the magnitude of the force and the mass of the object.
That tendency is called inertia. It is an object's resistance to changes in its motion and is dependent on its mass.
An object with the least momentum would be one that is either stationary or moving very slowly. Momentum is the product of an object's mass and velocity, so an object with a small mass and low speed would have the least momentum.
No, it takes the same force to accelerate a moving object as it does to accelerate a stationary object, according to Newton's first law of motion. The force required depends on the mass of the object and the desired acceleration.
Vector mass refers to the mass of an object with both magnitude and direction, an example being a moving asteroid with a specific mass and velocity. Scalar mass refers to the mass of an object with only magnitude, such as a stationary object with a specific quantity of mass.
Momentum is the product of an object's mass and its velocity, and only moving objects have momentum. If an object is stationary, it has zero momentum. Momentum is a vector quantity, meaning it has both magnitude and direction, and is conserved in a closed system with no external forces acting on it.
Yes, a stationary object still possesses inertia, which is its resistance to changes in motion. However, since momentum is dependent on an object's mass and velocity, a stationary object has zero momentum.
The mass of an object moving at 4 miles per second with the same momentum as an object at rest can be calculated using the equation for momentum, which is mass multiplied by velocity. If we consider the momentum of a stationary object to be 1 unit, then the mass of the object moving at 4 miles per second to have the same momentum would be 0.25 units.
An object has no kinetic energy when it is at rest or stationary, meaning it is not moving. Kinetic energy is the energy associated with an object in motion, so if the object is not moving, it does not possess any kinetic energy.
In addition to the mass of both objects and the distance the stationary object was moved, you need to know the coefficient of restitution or the type of collision (elastic or inelastic). This information will help you determine how much kinetic energy was transferred during the collision and allow you to calculate the velocity of the moving object before and after the collision.