gravitational attraction.
The gravitational attraction of the Earth to the apple is equal in magnitude to the gravitational attraction of the apple to the Earth. This is described by Newton's third law of motion, which states that for every action, there is an equal and opposite reaction.
The gravitational attraction of an apple on Earth is approximately 1 Newton, which is equivalent to the weight of the apple. This force is a result of the gravitational pull between the apple and Earth.
The force that governs the motion of an apple falling from a tree is gravity. Gravity is the force of attraction between two objects with mass, and it pulls the apple towards the center of the Earth, causing it to fall.
The force of attraction between the Earth and ourselves is much stronger than the attraction between two apples because the Earth has a much larger mass than an apple and gravitational force is directly proportional to the mass of the objects involved. Additionally, the distance between us and the center of the Earth is much smaller than the distance between two apples, further increasing the gravitational force.
Imagine a table cloth held on by each corner above the ground. This is the universe. Put an apple on it. This is a planet. The apple makes a dent. This is gravity. Put grapes on the cloth. These are smaller planets. They are drawn to the apple. Put a soccer ball on the cloth. This is a very large planet. Everything moves towards it. Gravity.
The gravitational attraction of the Earth to the apple is equal in magnitude to the gravitational attraction of the apple to the Earth. This is described by Newton's third law of motion, which states that for every action, there is an equal and opposite reaction.
The gravitational attraction of an apple on Earth is approximately 1 Newton, which is equivalent to the weight of the apple. This force is a result of the gravitational pull between the apple and Earth.
The force that governs the motion of an apple falling from a tree is gravity. Gravity is the force of attraction between two objects with mass, and it pulls the apple towards the center of the Earth, causing it to fall.
The force of attraction between the Earth and ourselves is much stronger than the attraction between two apples because the Earth has a much larger mass than an apple and gravitational force is directly proportional to the mass of the objects involved. Additionally, the distance between us and the center of the Earth is much smaller than the distance between two apples, further increasing the gravitational force.
Imagine a table cloth held on by each corner above the ground. This is the universe. Put an apple on it. This is a planet. The apple makes a dent. This is gravity. Put grapes on the cloth. These are smaller planets. They are drawn to the apple. Put a soccer ball on the cloth. This is a very large planet. Everything moves towards it. Gravity.
the gravitational attraction of apple is sun.
The gravitational attraction of the Earth to the apple is equal in magnitude to the gravitational attraction of the apple to the Earth. This is in accordance with Newton's Third Law of Motion, stating that for every action, there is an equal and opposite reaction.
Isaac Newton discovered the gravitational force through observations and experiments, including his famous apple falling from a tree. He formulated his law of universal gravitation to explain the attraction between all objects with mass.
The story of the apple falling on Isaac Newton's head is a popularized version of the events that led him to develop his theory of gravity. Newton's law of universal gravitation describes the attraction between objects with mass, like the apple and Earth, and explains how the moon stays in orbit around Earth.
Yes, the apple does attract the Earth due to gravity. However, the force of gravity is much stronger on more massive objects, so the Earth's gravitational pull on the apple is much greater than the apple's pull on the Earth. As a result, you do not visibly see the Earth moving towards an apple.
The Earth is more massive. The same force will result in less acceleration on a more massive object (Newton's Second Law).
A force can also be an attraction or repulsion between objects due to gravity or electromagnetic interactions. This type of force can cause objects to accelerate towards or away from each other without physical contact, such as the force of gravity between the Earth and an apple.