Four beads, each of mass \( m = 1 \) kg, are attached at various locations to a ring, also of mass \( m = 1 \) kg, and radius \( R = 1 \) m (see figure). Find the coordinates of the center of mass of the system consisting of the ring and the beads.Angle \( A \), located between the first bead and the horizontal, is equal to \( 43^\circ \). Angle \( B \), located between the horizontal and the second bead, is equal to \( 50^\circ \). Angle \( C \), located between the third bead and the horizontal, is equal to \( 68^\circ \). Angle \( D \), located between the horizontal and the fourth bead, is equal to \( 31^\circ \).\[ x_{cm} = \quad \text{m} \]\[ y_{cm} = \quad \text{m} \]**Diagram Explanation:**- The diagram features a circle representing a ring, centered around the origin of an \( xy \)-coordinate system.- Four beads, labeled \( m_1, m_2, m_3, \) and \( m_4 \), are positioned at various angles on the circumference.- Light blue lines connect each bead to the center of the circle, depicting their radial positions.- Arrows labeled \( A, B, C, \) and \( D \) indicate the angles between the horizontal axis and the lines connecting the center to each bead.- The \( x \)-axis runs horizontally, and the \( y \)-axis runs vertically, intersecting at the center.

Analyze the figure given below, The x-coordinate of the centre of mass will be given as, Here, mr…

Answered: Four beads, each of mass m = 1 kg, are…

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