the force of tension in the rope, which is delivered to the object to which the opposite end of the rope is attached
Tension
500 N
The forces that could occur in a pulley system are the force of gravity (due to the pulley's own weight), the tension force (of the rope), and the applied force (the force pulling on the ropes, i.e. a person pulling on it, or a load on the rope). goog dkjf ikjhrknj mjbnrgje gjknhdk irhfgt n s
Pulling is the main force in ropes, as you pullthe rope.
Tension (often found in a pulley system) is a pulling force found in rope. This will work in 2 directions.
Tension
Earth's gravity pulling on the Sun.
Think of a heavy box lying on the ground with a rope attached for pulling. Until you try to pull the box it doesn't actually resist you. Once you start pulling on the rope, and even if you are unable to move the box, it is as if there is a force pulling against you. This is the force of friction. The friction between the box and the ground sets up this force.
When you pull on the rope, the side with the most force will win.
It would be the same as if one tug of war team was pulling against a tree.
500 N
Not unless there's a pulley involved.
The forces that could occur in a pulley system are the force of gravity (due to the pulley's own weight), the tension force (of the rope), and the applied force (the force pulling on the ropes, i.e. a person pulling on it, or a load on the rope). goog dkjf ikjhrknj mjbnrgje gjknhdk irhfgt n s
Pulling is the main force in ropes, as you pullthe rope.
A pulley halves the force required to lift a load, but doubles the length of rope or cable. So if you had a 10lb. weight attached to a rope, and were pulling the rope upward, you would need 10lbs. of force to lift it. However, if you had a pulley attached to a beam overhead, and were pulling down on the rope, you would only need 5lbs. of force to move the weight, but you would need to pull twice as much rope to get the weight to move the same distance.
Tension (often found in a pulley system) is a pulling force found in rope. This will work in 2 directions.
The forces at work are balanced. Gravity is pulling the book (and the rope) down, and the rope exerts an equal and opposite force to keep the book suspended.