Forces that likely act upon a moving object include:
No, that's not the way our Universe works. I suggest do some reading on Newton's Second Law - for instance, in the Wikipedia. Briefly, you do NOT need a NET force to keep an object moving. With a net force of zero (i.e., balanced forces): * A stationary object will remain stationary * A moving object will continue moving, at constant velocity.
The speed with which an object moves depends on its mass, any force applied on it (including frictional forces, which slow it down), and its previous history - i.e., if it has been moving before, it will have the tendency to continue moving, at least for a while, until frictional forces slow it down.
Some exmples of forces are- an object begining to move an object speeding up an object begining to slow down or stop moving an object changing direction an object remaining still
If a body is in motion, some force, of necessity, acted upon it to get it moving in the first place. However, if no furtherforces are acting upon it, including, for example, friction, gravity or solar radiation as with an object traveling through space, for example, the object would tend to continue on its path, unaltered, ad infinitum.
According to Law of Inertia, an object will remain in its state of motion, either at rest or moving until an external unbalanced force acts on it. So if the object is at rest, some external force (F) has to be applied in order to move that object. Law of Inertia is actually a second law, out of three Newton's laws of motion.
Any and all matter.
No, that's not the way our Universe works. I suggest do some reading on Newton's Second Law - for instance, in the Wikipedia. Briefly, you do NOT need a NET force to keep an object moving. With a net force of zero (i.e., balanced forces): * A stationary object will remain stationary * A moving object will continue moving, at constant velocity.
The speed with which an object moves depends on its mass, any force applied on it (including frictional forces, which slow it down), and its previous history - i.e., if it has been moving before, it will have the tendency to continue moving, at least for a while, until frictional forces slow it down.
Some Forces do not involve physical contact between the bodies on which they act. -Jauan Williams 3182163642
A stationary object is a object which is not moving or which have zero kinetic energy and a accelarated object is that which is moving withs some acceleration and have some kinetic energy.
There are truly thousands of forces acting upon one object at any one time, every object in the universe in some way will affect it. The main forces would gravity and friction and air resistance and thrust depending on the situation.
Some exmples of forces are- an object begining to move an object speeding up an object begining to slow down or stop moving an object changing direction an object remaining still
Usually not. To slow a moving object down, some force must act on the moving object. On Earth, this force is usually friction. In outer space, there is no significant amount of friction, so moving objects tend to continue moving, unless they are slowed down by OTHER forces, such as gravity.
If a body is in motion, some force, of necessity, acted upon it to get it moving in the first place. However, if no furtherforces are acting upon it, including, for example, friction, gravity or solar radiation as with an object traveling through space, for example, the object would tend to continue on its path, unaltered, ad infinitum.
According to Law of Inertia, an object will remain in its state of motion, either at rest or moving until an external unbalanced force acts on it. So if the object is at rest, some external force (F) has to be applied in order to move that object. Law of Inertia is actually a second law, out of three Newton's laws of motion.
It transferrs from the moving object to the stationary object.
yes. external forces ALTER an object's motion... but once it starts moving and has no external forces being applied on it, it will go in a straight line with constant velocity (Newton's 1st Law of Motion)