**Transcription for Educational Website****Problem Statement:**A ball of mass \( m \) is attached to a thin string and whirled in a vertical circle of radius \( r \). The magnitude of the tension in the string at point \( e \) where the ball is moving with speed \( v \) is:**Diagram Explanation:**The diagram depicts a vertical circle with labeled positions \( a, b, c, d, e, \) and \( f \) along the circle. The radius of the circle is denoted by \( r \). At point \( b \), the ball is shown moving in the direction of the tension vector. The circle with these points represents the path of the ball attached to a string. The point \( e \) is one of the positions along this circular path where the tension needs to be calculated.**Answer Choices:**- \( \frac{mv^2}{r} \)- \( \frac{mv^2}{r} - mg \)- \( mg \)- \( mg + \frac{mv^2}{r} \)- \( mg \cos(\theta) \) The problem asks for the magnitude of the tension in the string at point \( e \) as the ball moves along its circular path. Select the correct expression from the given options.

Given Data: Let us consider the given the magnitude of the tension in the string at point e where…

Answered: A ball of mass m is attached to a thin…

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A ball of mass m is attached to a thin string and whirled in a vertical circle or radius r. The magnitude of the tension in the string at point e where the ball is moving with speed v is C e O mv²/r O mv²/r-mg O mg mg + mv²/r O mg cos(0) f b a