The ball accelerates due to the force of gravity. As it moves down the hill, the potential energy it had at the top is converted into kinetic energy. The acceleration is a result of this conversion of energy.
The ball will experience a gravitational force pulling it down the hill, causing it to accelerate due to gravity. As it rolls down, it will convert potential energy into kinetic energy, increasing its speed until it reaches the bottom of the hill.
When a ball is placed at the top of a hill and accelerates towards the bottom, it experiences both gravitational force pulling it down the hill and the force of friction acting against its motion. These forces combined determine the ball's speed and how far it will travel down the hill.
When a ball placed at the top of a hill accelerates toward the bottom, it experiences both gravitational potential energy being converted to kinetic energy and the force of gravity acting upon it, causing it to accelerate.
When a ball rolls down a hill, several forces are acting on it. The force of gravity pulling the ball downward is greater than the force of friction pushing against it, causing the ball to accelerate. This imbalance between the forces of gravity and friction is why the ball rolls down the hill.
The speed of the ball increases as it rolls down the hill due to the acceleration caused by gravity. The ball will accelerate at a constant rate as it moves downhill, increasing its speed until it reaches the bottom of the hill.
The ball will experience a gravitational force pulling it down the hill, causing it to accelerate due to gravity. As it rolls down, it will convert potential energy into kinetic energy, increasing its speed until it reaches the bottom of the hill.
When a ball is placed at the top of a hill and accelerates towards the bottom, it experiences both gravitational force pulling it down the hill and the force of friction acting against its motion. These forces combined determine the ball's speed and how far it will travel down the hill.
rolling friction, air resistance and gravitational force
When a ball placed at the top of a hill accelerates toward the bottom, it experiences both gravitational potential energy being converted to kinetic energy and the force of gravity acting upon it, causing it to accelerate.
When a ball rolls down a hill, several forces are acting on it. The force of gravity pulling the ball downward is greater than the force of friction pushing against it, causing the ball to accelerate. This imbalance between the forces of gravity and friction is why the ball rolls down the hill.
The speed of the ball increases as it rolls down the hill due to the acceleration caused by gravity. The ball will accelerate at a constant rate as it moves downhill, increasing its speed until it reaches the bottom of the hill.
rolling friction, air resistance and gravitational force
The velocity of a ball rolling down a hill will increase due to the acceleration caused by the pull of gravity. As the ball gains speed, its velocity will continue to increase until it reaches the bottom of the hill.
When a ball is placed on a hill, it gains gravitational potential energy due to its elevated position. This potential energy is associated with its position relative to the Earth's surface. If the ball rolls down the hill, the potential energy is converted into kinetic energy as it moves.
They will reach at the same time.
A ball rolls down a hill due to the force of gravity pulling it downward. Gravity is a natural force that attracts objects towards each other, causing the ball to move in the direction of the slope.
When you place a ball at the top of a hill and it accelerates toward the bottom, it experiences both gravitational potential energy being converted into kinetic energy as it moves down the hill, and air resistance or friction acting as opposing forces to its motion.