Actually the smaller ball would have more accleration because the smaller ball weighs less.....
The ball thrown straight down from a bridge will experience an acceleration due to gravity. On Earth, this acceleration is approximately 9.81 m/s^2 and acts in the downward direction. The acceleration will cause the ball to increase in speed as it falls towards the ground.
The acceleration of the ball can be calculated using Newton's second law, which states that acceleration is equal to the force applied divided by the mass of the object. In this case, the acceleration would be 25 N divided by the mass of the ball in kg.
The acceleration of the ball would depend on its mass and the force of the push. This is because force = mass times acceleration. You could manipulate this equation to solve for acceleration by dividing each side by mass. Acceleration therefore equals force/mass.
Using Newton's second law (F=ma), the acceleration of the ball can be calculated by dividing the force (25 N) by the mass of the ball (0.3 kg). The acceleration of the ball would be 83.3 m/s^2.
The acceleration of the ball at that moment would be approximately equal to the acceleration due to gravity, which is about 9.81 m/s^2. This acceleration is acting downward towards the ground, assuming no other forces are acting on the ball.
If you put a ball in the sun, different colors would absorb or reflect the sun more or less. So that would heat up the air inside the ball and make it bigger or smaller. Black balls would be bigger and white ones smaller. ( NO PUN INTENDED)
That depends how hard you kick them. If you kick them normally, than a smaller ball. If you kick them really hard, the bigger soccer ball would go further because the forces take longer time to slow down a heavier item.
The ball thrown straight down from a bridge will experience an acceleration due to gravity. On Earth, this acceleration is approximately 9.81 m/s^2 and acts in the downward direction. The acceleration will cause the ball to increase in speed as it falls towards the ground.
The acceleration of the ball can be calculated using Newton's second law, which states that acceleration is equal to the force applied divided by the mass of the object. In this case, the acceleration would be 25 N divided by the mass of the ball in kg.
The acceleration of the ball would depend on its mass and the force of the push. This is because force = mass times acceleration. You could manipulate this equation to solve for acceleration by dividing each side by mass. Acceleration therefore equals force/mass.
The acceleration of the ball would depend on its mass and the force of the push. This is because force = mass times acceleration. You could manipulate this equation to solve for acceleration by dividing each side by mass. Acceleration therefore equals force/mass.
it will leave the surface of the other ball roughly 1/4 of the way down to the other end.
Using Newton's second law (F=ma), the acceleration of the ball can be calculated by dividing the force (25 N) by the mass of the ball (0.3 kg). The acceleration of the ball would be 83.3 m/s^2.
The acceleration of the ball at that moment would be approximately equal to the acceleration due to gravity, which is about 9.81 m/s^2. This acceleration is acting downward towards the ground, assuming no other forces are acting on the ball.
A ball rolls faster on a steeper ramp because gravity has a greater component pulling the ball downhill, increasing its acceleration. On a less steep ramp, the gravitational force component is smaller, resulting in slower acceleration and lower speed for the ball.
The acceleration of the ball is about 9.8 m/s^2, which is the acceleration due to gravity.
Not necessarily. In a vacuum where air resistance is not a factor, objects of different sizes and weights will fall at the same rate due to gravity. However, external factors like friction and air resistance can affect the speed at which a ball rolls, regardless of its size.