Such an object would be accelerated, according to Newton's Second Law, at the rate of F / m (force / mass). For example, if the mass is 1 kilogram, the acceleration would be 1 meter per second square (speed would increase 1 meter/second every second); if the mass is 1/1000 of a kilogram, the acceleration would be 1000 meters/second squared, etc. In theory, such an object can get faster and faster, until it is close to the speed of light. In practice, it might be difficult to maintain such as force, however.
Friction is a force that always acts in a direction opposite to that of motion. So the frictional force does negative work on the velocity of an object ( thus reducing the speed of an object).
the object will floatit shows increasing acceleration
An object can only gain speed if there is a net force on it. If a net horizontal force acting on an object is large enough, or acts for a long enough time, the object can aquire a speed up to just under the speed of light, 3 x 10^8 m/s.
An object will continue to travel at constant speed unless acted on by an unbalanced force, and for every force acted on there is an equal opposite reaction in the other way. So the speed and direction of the object will be changed.Source(s):F=MA
Yes, it is.
There is no specific force required to accelerate an object to a predetermined speed. A smaller force will produce a smaller acceleration, so it will take longer to reach the desired speed. A larger force will produce a larger acceleration, so the desired speed will be reached sooner. But either the large or the small force, or any other force, will produce an acceleration, and cause the object to reach the specified speed sooner or later.
Drag force, or the force of air friction for a falling body, increases with speed. A falling object will reach a speed at which the force of air friction will be equal to and opposite the force of gravity. At that point, the object will no longer accelerate. It's speed will remain constant, and we call that speed (and direction) its terminal velocity.
An object with mass might approach, but never reach, the speed of light.An object with mass might approach, but never reach, the speed of light.An object with mass might approach, but never reach, the speed of light.An object with mass might approach, but never reach, the speed of light.
If nothing affects it, then there is no force acting on it. if there is no force, there is balanced force (trivial meaning of 'nothing'). If there is balanced force, there is constant speed.This constant speed can also be maintained with a force, but the question at hand states nothing is affecting it, so that discussion is elsewhere.
Because the size of the objects determine the speed and force of the object, the smaller the object, the higher the speed and the less force is applied whereas a larger object will apply more force and less speed.
Force = Mass * Acceleration or Acceleration = Force / MassThe Mass is the mass of the object and the Acceleration is the change of speed of the object due to the Force.
A basic physics answer for this is that a net force (or unbalanced force) will cause an object to accelerate, that is, cause the object to change its speed and/or direction.
A falling object will continue to accelerate when free falling, but each object has a maximum speed which it can reach (but go no faster than this speed) when free falling from great heights. True.
When on Earth, you can escape if you move away from the Earth at the "escape" speed. Gravity will slow you down and you will reach zero speed at an infinite distance.
No force is required to keep an object moving at constant speed in a straight line. Force is required only to change its speed or direction.
Yes,because if a force is getting weaker it causes the speed to slow down but if the force is getting stronger it causes the object to move faster.
When the force of friction due to air resistance at that speed becomes equal to the object's weight. At that point, the sum of the vertical forces on the object is zero, so it no longer accelerates.