Total Acceleration of a Ball Whirled in Inclined Vertical Circle

In summary, the total acceleration of a ball whirled in an inclined vertical circle is the combination of centripetal acceleration and tangential acceleration. The angle of inclination affects the magnitude of the total acceleration, with a higher angle resulting in a greater total acceleration. The total acceleration can be zero when the ball is at the top or bottom of the circle. The speed of the ball also affects the total acceleration, with a higher speed resulting in a higher total acceleration. The radius of the circle has a direct relationship with the total acceleration, with a smaller radius resulting in a higher total acceleration.
  • #1
cfkorea
4
0
hmm.. I have a question.

If a ball is whirled in a vertical circle inclined from the horizontal axis

at angle [tex]\theta[/tex]. what is the total acceleration of the ball?
 
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  • #2
Show your works. You have to use a free body diagram here. Just find it with respect to theta and the angle phi that it makes with a fixed diameter in the circular path drawn by it.
 
  • #3


The total acceleration of the ball can be calculated using the equation a = v^2/r, where v is the velocity of the ball and r is the radius of the circle. In this case, the velocity of the ball will change as it moves through the inclined vertical circle, so the total acceleration will also change. The total acceleration will be a combination of two components: the centripetal acceleration, which is directed towards the center of the circle, and the tangential acceleration, which is directed tangentially to the circle. The magnitude of the total acceleration can be found by using the Pythagorean theorem, where the hypotenuse is the total acceleration and the two legs are the centripetal and tangential accelerations. The direction of the total acceleration will depend on the direction of the tangential acceleration, which will change as the ball moves through the inclined vertical circle. Overall, the total acceleration of the ball will be a dynamic quantity that is constantly changing as the ball moves through the circle.
 

Related to Total Acceleration of a Ball Whirled in Inclined Vertical Circle

1. What is the total acceleration of a ball whirled in an inclined vertical circle?

The total acceleration of a ball whirled in an inclined vertical circle is the combination of two types of acceleration: centripetal acceleration and tangential acceleration. Centripetal acceleration is the acceleration towards the center of the circle, while tangential acceleration is the acceleration along the tangent of the circle.

2. How is the total acceleration of a ball in an inclined vertical circle affected by the angle of inclination?

The angle of inclination affects the magnitude of the total acceleration. As the angle of inclination increases, the centripetal acceleration decreases while the tangential acceleration increases. This results in a higher total acceleration for the ball.

3. Can the total acceleration of a ball in an inclined vertical circle ever be zero?

Yes, the total acceleration of a ball in an inclined vertical circle can be zero when the ball is at the top or bottom of the circle. At these points, the centripetal acceleration is equal in magnitude but opposite in direction to the tangential acceleration, resulting in a net acceleration of zero.

4. How does the speed of the ball affect the total acceleration in an inclined vertical circle?

The speed of the ball affects the magnitude of the total acceleration. As the speed increases, both the centripetal and tangential accelerations increase, resulting in a higher total acceleration for the ball.

5. How does the radius of the circle affect the total acceleration of the ball in an inclined vertical circle?

The radius of the circle has a direct relationship with the total acceleration of the ball. As the radius decreases, the total acceleration increases. This is because a smaller radius requires a higher centripetal acceleration to keep the ball moving in a circle.

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