According to Newton's second law force equals mass times acceleration:
F=ma
We know F and a and want to calculate m
Therefore we solve the formula after m and get
m=F/a
Now we replace the variables and get
m=13.5N/(6.5m/s2)
Since a Newton is a united measured in kg*m/s2 we get:
m=13.5kg*m/s2/(6.5m/s2)
m=2.08 kg if rounded to two digits
When a soccer ball is kicked, the forces acting on it are initially unbalanced. The force applied by the player's foot creates an unbalanced force, causing the ball to accelerate. As the ball moves through the air, air resistance and gravity act as external forces, creating a balanced force system that eventually slows down and stops the ball's motion. This can be determined by analyzing the net force acting on the ball at any given moment, which is the sum of all external forces.
If you apply a force to a soccer ball, it will accelerate in the direction of the force. The speed and direction of the ball will depend on the magnitude and direction of the force applied.
The rubber ball moved due to an external force applied to it, such as being thrown, kicked, or rolled. The force caused the ball to accelerate and change its position or direction.
The force that causes a soccer ball to take a curved path when it is kicked is called the Magnus effect. This effect occurs when the ball spins as it moves through the air, creating differences in air pressure around the ball that result in a curved trajectory.
The possible speed of a kicked soccer ball varies directly with the force applied over a certain area of the soccer ball, but average speeds are between 20 and 60 miles per hour, while the highest would be upwards of 90 and 100 miles per hour.
When a soccer ball is kicked, the forces acting on it are initially unbalanced. The force applied by the player's foot creates an unbalanced force, causing the ball to accelerate. As the ball moves through the air, air resistance and gravity act as external forces, creating a balanced force system that eventually slows down and stops the ball's motion. This can be determined by analyzing the net force acting on the ball at any given moment, which is the sum of all external forces.
If you apply a force to a soccer ball, it will accelerate in the direction of the force. The speed and direction of the ball will depend on the magnitude and direction of the force applied.
the soccer ball will move because a force has acted on it.
the action force is your foot when u strike the ball the reaction force is the ball being kicked
the action force is your foot when u strike the ball the reaction force is the ball being kicked
The object at rest will remain at rest unless there is an outside force applied. Example: There is a basketball on the floor. Suddenly, a soccer player kicked it. Explanation: While the basketball is on the floor, it applies force, that is why it is stable--not moving. Then when the soccer player kicked the ball, that is the time that an outside force was applied.
The rubber ball moved due to an external force applied to it, such as being thrown, kicked, or rolled. The force caused the ball to accelerate and change its position or direction.
The force that causes a soccer ball to take a curved path when it is kicked is called the Magnus effect. This effect occurs when the ball spins as it moves through the air, creating differences in air pressure around the ball that result in a curved trajectory.
Accelerate, motion is generated by applying force to mass.
The possible speed of a kicked soccer ball varies directly with the force applied over a certain area of the soccer ball, but average speeds are between 20 and 60 miles per hour, while the highest would be upwards of 90 and 100 miles per hour.
... to accelerate.... to accelerate.... to accelerate.... to accelerate.
The force pulling objects back towards the Earth is gravity.