Continue walking at a constant speed. Just after you release the ball upward, make a sharp right turn. Where does the ball land?

When you release the ball upward and continue walking at a constant speed while making a sharp right turn, the ball will follow a parabolic trajectory due to the combination of its initial upward velocity and the horizontal motion caused by your continued walking.

Assuming there are no external forces or factors such as air resistance, and neglecting the effect of gravity during the short duration of the sharp right turn, the ball will continue to move along a parabolic path as it was before your turn. However, the point of landing will depend on the height from which you released the ball and the speed at which you were walking.

If the ball was released at a height higher than your walking height and you were walking at a moderate speed, the ball will likely land behind you on the left side, taking into account the parabolic shape of its trajectory.

Conversely, if the ball was released at a height lower than your walking height, it might land in front of you on the right side, again following the parabolic trajectory.

The specific point of landing cannot be determined accurately without knowing the exact initial height of release, the walking speed, and the angle of the right turn. It's important to note that these are simplifications and real-life scenarios may involve additional factors affecting the ball's trajectory.

To determine where the ball lands after you release it upward and make a sharp right turn while walking at a constant speed, we need to consider the relevant physics concepts.

When you release the ball upward, it gains an initial velocity. In the absence of any external forces, the motion of the ball can be explained by projectile motion.

Projectile motion involves two components of motion: horizontal motion and vertical motion. The horizontal motion is unaffected by gravity, while the vertical motion is influenced by the force of gravity.

Assuming that the ball is released vertically upward and you make a sharp right turn, the horizontal motion of the ball is perpendicular to the turn. Therefore, the horizontal motion of the ball remains unaffected by the turn.

On the other hand, the vertical motion of the ball is influenced by gravity, which acts downward. As a result, while the horizontal motion stays constant, the vertical motion of the ball will follow a curved path known as a parabola.

Since you continue walking at a constant speed, the horizontal distance covered by the ball during its upward and downward motion will be the same as if you hadn't turned. Thus, the ball will fall back to the ground at the original position where you released it.

In summary, regardless of the sharp right turn you make, the ball will land on the ground at the same spot where it was released.