No.
Either the mass of the object or the speed of the object. However if the object is at rest, the increase of the mass will have no effect on its resting kinetic energy, which is zero.
Increased mass of a body at rest will take more energy to return the body to motion. Plus, it will increase the effect of gravity on the object.
The property of matter that causes an object to have inertia of rest is its mass. Mass is a measure of the amount of matter in an object and determines how difficult it is to change the object's state of rest or motion. Objects with more mass have greater inertia of rest.
"Mass" is often understood to mean "rest mass", at least in more advanced treatments of the topic. This is because it is the invariant mass - the "rest mass" is the same for all observers. However, "mass" might also refer to the relativistic mass - the mass, increased due to a high speed.
Object B will experience a small increase in velocity due to the collision with object A, according to the law of conservation of momentum. Since object A has a smaller mass and is moving at low speed, the impact on object B will be minimal.
"rest mass"
To answer why delves into philosophy or theology. Why is there gravity - there just is..The relativistic mass is the mass an object possesses because it travels at speeds that approach the speed of light ('c'). According to the Lorentz factor, the relativistic mass of an object increases as an object's speed approaches c as follows:.mrel = m / (1 - v2/c2)1/2.where:mrel is the relativistic massm is the rest massv is the object's velocityc is the speed of lightRelativistic mass is only significantly greater than rest mass for objects travelling faster than 0.1c, or one tenth the speed of light, or about 108,000,000 KPH (67,000,000 MPH). As you can see from the above equation, the denominator approaches zero as the object's velocity approaches the speed of light, making the relativistic mass unbounded..The Lorentz factor also applies to an object's momentum and its energy. This means not only the mass, but also an object's momentum and energy approach infinity as the object's speed approaches c. Note that, in this context, an object's rest energy is in according to the equation:.E = mc2.and this energy increases as the object's speed approaches c.
It doesn't change at all. Just because an object starts moving, doesn't mean it's mass changes. What does change, however, is it's momentum.
The acceleration of an object due to gravity is 9.6 meters per second. The acceleration does not decrease or increase based on an object's mass.
That's related to the fact that it moves at the speed of light. If you look at the formula for mass increase as a function of speed, it should be obvious that the mass of anything that has a non-zero (i.e., positive) rest mass would approach infinity as the object approaches the speed of light - meaning that the speed of light itself can never be reached, since that would give the object an infinite mass (and require an infinite energy). The only way an object can move at the speed of light is for it to have a rest mass zero. In a way, this is hypothetical, since particles such as the photon or graviton, that move at the speed of light, can only move at the speed of light.
Not exactly, as technically the mass of an object is a measure of its inertia, or resistance to change in state of motion or rest.
First, there is no such thing as "conversion from mass to energy".Also, if something is moving exactly at the speed of light, it can only be something that has zero mass (formerly called "rest mass"). For example, it might be photons, or gravitons - particles that can ONLY move at the speed of light. If you provide energy to an object moving at any speed, you will increase its energy - and this increase in energy will also be noticeable as some kind of mass; it will be harder to accelerate the object.