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When forces are balanced or net force = 0, objects at rest will remain at rest and objects in motion will continue to move at constant speed until another force acts on the object

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When forces are balanced or net force = 0, objects at rest will remain at rest and objects in motion will continue to move at constant speed until another force acts on the object

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When net force act in the direction of the object's motion, its speed increases; likewise, when net force act on the object against its motion, its speed will decrease. We can determine the speed by using the formula acceleration = net force / mass of object

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When net force act in the direction of the object's motion, its speed increases; likewise, when net force act on the object against its motion, its speed will decrease. We can determine the speed by using the formula acceleration = net force / mass of object

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In a push/pull interaction the objects will exert equal force in strength on each other in the opposite direction. In this example, when the car pushes the wall with a set amount of force, the wall reacts back by pushing the car with a force equal to the strength of the force the car applies.

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In a push/pull interaction the objects will exert equal force in strength on each other in the opposite direction. In this example, when the car pushes the wall with a set amount of force, the wall reacts back by pushing the car with a force equal to the strength of the force the car applies.

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 Force Diagram: uses arrows to represent the direction the force acts on the object in a certain time frame. The length of the arrows gives a relative depiction of the strength of the force and will typically be denoted in the unit Newtons (N) (the longer the stronger, the shorter the weaker)

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 Force Diagram: uses arrows to represent the direction the force acts on the object in a certain time frame. The length of the arrows gives a relative depiction of the strength of the force and will typically be denoted in the unit Newtons (N) (the longer the stronger, the shorter the weaker)

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When two objects interact with each other, the forces only act on the objects when they are in contact and energy is transferred from one object to another rather than force

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When two objects interact with each other, the forces only act on the objects when they are in contact and energy is transferred from one object to another rather than force

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Air resistance (AR) acts on an object in the opposite direction (vertically and/or horizontally) relative to the object's speed, it becomes increasingly stronger as the object's speed increases and weaker when the object slows down; for instance a skydiver is falling, as his speed increases due to gravity's force being stronger than AR, the diver accelerates, consequently AR increases until it is equal to the force of gravity and the diver will travel at constant speed due to balanced forces

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Air resistance (AR) acts on an object in the opposite direction (vertically and/or horizontally) relative to the object's speed, it becomes increasingly stronger as the object's speed increases and weaker when the object slows down; for instance a skydiver is falling, as his speed increases due to gravity's force being stronger than AR, the diver accelerates, consequently AR increases until it is equal to the force of gravity and the diver will travel at constant speed due to balanced forces

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Forces in the same direction are added together then subtracted by forces in the opposite direction. In this example (Rocket 100N + Engine 100N - Drag 50N = Net Force of 150N forward)

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Forces in the same direction are added together then subtracted by forces in the opposite direction. In this example (Rocket 100N + Engine 100N - Drag 50N = Net Force of 150N forward)

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Friction acts on an object "rubbing" against bumps in the surface in the opposite direction of the object's motion; friction is equal to the forward force(s) and increases as forward forces become stronger to a certain point; static friction is stronger than moving friction

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Friction acts on an object "rubbing" against bumps in the surface in the opposite direction of the object's motion; friction is equal to the forward force(s) and increases as forward forces become stronger to a certain point; static friction is stronger than moving friction

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Examples of forces acting in the same direction of the object's motion and opposing the object's motion

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Examples of forces acting in the same direction of the object's motion and opposing the object's motion

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Sideways forces: (forces that don't directly act in or against the object's motion) changes the direction of the object

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Sideways forces: (forces that don't directly act in or against the object's motion) changes the direction of the object

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When forces continuously act on an object without directly opposing or in the same direction to the object in motion, the object will continue to rotate around the center if there is a common center

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When forces continuously act on an object without directly opposing or in the same direction to the object in motion, the object will continue to rotate around the center if there is a common center

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object will begin to slow down because the net force opposes the motion of the object

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object will begin to slow down because the net force opposes the motion of the object

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object must come to a stop before changing directions; the object will eventually slow down to a stop then starts accelerating in the direction of the net force

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object must come to a stop before changing directions; the object will eventually slow down to a stop then starts accelerating in the direction of the net force

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object continues to speed up in the direction of the net force

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object continues to speed up in the direction of the net force

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When balance forces act on a object at rest, it remains at rest

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When balance forces act on a object at rest, it remains at rest

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when balance forces act on a moving object, it continues to move at constant speed

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when balance forces act on a moving object, it continues to move at constant speed