What kind of object in what kind of motion? The question is too vague to answer, and the forces depend on the properties of the object and its environment anyway. For example, there might ... or might not ... be significant electromagnetic and/or gravitational forces acting on the object (technically, any real object in the real universe WILL have electromagnetic and gravitational forces acting on it, but they may be insignificant in some cases).
Gravity and friction can affect inertia. Another force that can affect inertia is the mass of the object that is being moved.
What effects inertia is the object's MASS. Inertia is directly proportional to the Object's MASS
elastic potential energy
Inertia depends on mass.
an object in motion will stay in motion unless acted upon another force. so really any thing could put somthing in motion. your hand, a car,train?
Yes, the object can have equal forces acting in opposite directions: 5N ->[]<- 5N The object will have forces acting upon it, but will not move.
Forces that likely act upon a moving object include:frictiongravity
Assuming this is a vacuum: Motion would occur only if there is no secondly force acting on the object with the same magnitude(strength) but has the opposite direction to the force you're acting upon this object.
Newton's first law states that an object at rest stays at rest and an object in motion stays in motion with constant velocity unless acted upon by an unbalanced force. This is also called the law of inertia. So, the forces acting on an object are balanced when the object is not accelerating. This happens when the object is at rest, or when the object is moving at constant velocity. ===================== The forces on an object are balanced when their vector sum is zero.
an object in motion will stay in motion unless acted upon another force. so really any thing could put somthing in motion. your hand, a car,train?
Yes, the object can have equal forces acting in opposite directions: 5N ->[]<- 5N The object will have forces acting upon it, but will not move.
An object's motion can't change unless an external force is acting upon it. This is Newton's First Law of Motion.
Forces that likely act upon a moving object include:frictiongravity
Yes, the object can have equal forces acting in opposite directions: 5N ->[]<- 5N The object will have forces acting upon it, but will not move.
Newton's first law of motion states, that an object at rest will stay at rest and an object in motion will stay in motion, unless acted upon by an unbalanced force.
Unbalanced forces are forces acting on an object that do not nullify one another, therefore resulting in a change in motion. An example of a sentence using the term "unbalanced forces" is "Newton's first law of motion states that an object at rest will stay at rest and an object in motion will stay in motion unless acted upon by unbalanced forces. "
When there is no net force - if there are any forces, the sum of all the forces must be zero.
Assuming this is a vacuum: Motion would occur only if there is no secondly force acting on the object with the same magnitude(strength) but has the opposite direction to the force you're acting upon this object.
-- An unbalanced group of forces on an object causes the object to accelerate in the direction of the net force. -- If an object is not moving, then the group of forces on it must be balanced, else it would be accelerated.
Newton's first law states that an object at rest stays at rest and an object in motion stays in motion with constant velocity unless acted upon by an unbalanced force. This is also called the law of inertia. So, the forces acting on an object are balanced when the object is not accelerating. This happens when the object is at rest, or when the object is moving at constant velocity. ===================== The forces on an object are balanced when their vector sum is zero.
Newton's laws of motion are physical laws that laid the foundation of for mechanics. These are important because they explain the relationships between an object and any forces acting upon it, as well as its motion in response to these forces.