It can either push or pull people.
it can ethier push or pull the object
True. According to Newton's third law of motion, action and reaction forces always act on different objects and have equal magnitudes but opposite directions. So, when these forces act in opposite directions on different objects, they effectively cancel each other out.
People feel shock when they touch some objects due to the buildup of static electricity on the surface of those objects. When a person touches these objects, the excess electrons move from the object to the person, resulting in a sudden discharge of static electricity that is felt as a shock.
Objects like metals, such as copper and aluminum, act as conductors by allowing the flow of electricity through them easily. Insulators, on the other hand, such as rubber and plastic, do not allow the flow of electricity and are used to prevent electrical current from passing through.
In order to cancel out, they must act on the same object.
The two forces are of the same magnitude, act in opposite directions, and act on different objects.
Magnetism is important in space in that space is filled with charged bodies that are moved by the magnetism. An example is, the Earth Magnetic shield deflects charged particles and protects the earth's atmosphere.
An object can still move even if the action and reaction forces are equal because they act on different objects. The equal forces produce opposite accelerations on the two objects, causing them to move in opposite directions. This is described by Newton's third law of motion.
The force's don't cancel out each other, they act on different objects. Forces can cancel only if they act on the same object.
Because they are acting on different objects.
b. outside forces act on the objects.
Similar forces will result in different accelerations on objects of different masses. According to Newton's second law, F = ma, where F is the force applied, m is the mass of the object, and a is the acceleration. Objects with larger masses will experience smaller accelerations compared to objects with smaller masses when subjected to the same force.