Different velocities is what causes objects to have the same mass and different amounts of inertia. This can be written in a formula.
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Gravity acts upon any objects in space.
At the macro level, there are only two forces that cause objects to be attracted toward each other:gravity applies to all objects; andmagnetism applies only to certain materials.
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If two materials with different coefficients of expansion are held together (by rivets glue or some other means) and subjected to changing temperatures the resultant stress might cause one or the other or both to fail (break).
If the objects have different velocities they will have different inertia.
The distribution of mass within the object can affect its inertia. An object with the mass distributed further from its axis of rotation will have higher inertia compared to an object with the same mass but a more compact distribution. Additionally, the shape and size of the object can also impact its inertia.
Inertia is the tendency of an object to resist any change in its motion.Two objects with the same mass and same velocity will both have the same amount of inertia. However, if they have different velocities, they will have different amounts of inertia.Consider two trains, one moving at 100 kilometers per hour, and the other moving at 120 kilometers per hour. If they both brake at the same time, the slower one will come to a stop sooner than the faster train, because the faster train has more inertia and can resist more friction than the slower train.
Lighter Objects have LESS "inertia". Mass is physical manifestation of inertia. Mass is weight so the more mass the more potential inertia to over-come -- either to make an object move or to stop an object once it is moving. So, if a meteorite weighing 1 gram hits a space station weighing 1,000 tons the likelihood of the object causing damage is proportional to the speed of the meteorite; but if the meteorite weighs 1,000 tons (same as space station) the sheer mass alone would cause damage (regardless of movement because any movement would be too much.)
The study of motion is called kinetics. It involves analyzing the forces and interactions that cause objects to move.
Inertia itself does not cause objects in motion to come to rest. Objects in motion tend to continue moving in a straight line unless acted upon by an external force, in accordance with Newton's first law of motion. When external forces such as friction or air resistance act upon an object, they provide a force in the opposite direction of the object's motion, eventually causing it to come to rest.
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Different types of oranges, different soils, and different ripeness can cause changes in the amounts of vitamin C.
Fluid inertia refers to the resistance of a fluid to changes in its motion. When an object moves through a liquid medium, the fluid's inertia can cause it to resist changes in direction or speed. This can affect the movement of the object by making it harder to accelerate or decelerate, and can also cause the object to experience drag or turbulence as it moves through the fluid.
Inertia itself is not harmful; it is a property of matter to resist changes in motion. However, inertia can lead to issues if not properly managed, such as in situations where quick changes in motion are needed, like during car accidents or sudden movements that can cause injury. It is important to consider and account for inertia when designing systems or handling objects to prevent accidents or damage.
Inertia, the tendency of an object to keep moving in a straight line, combines with gravity, the force that pulls objects together, to cause orbiting. The inertia of an object causes it to keep moving forward, while gravity continuously pulls it towards the center of the orbit, creating a balance that results in a circular or elliptical path around another body.
Inertia itself does not have a net force. Inertia is the tendency of an object to resist changes in its motion. When a net force acts on an object, it can overcome this inertia and cause the object to accelerate or decelerate.