149676 Two particles of mass \(5 \mathrm{~kg}\) and \(10 \quad \mathrm{~kg}\) respectively are attached to the two ends of a rigid rod of length \(1 \mathrm{~m}\) with negligible mass. The centre of mass of the system from the \(5 \mathbf{~ k g}\) particle is nearly at a distance of

149677 Three identical spheres, each of mass \(M\), are placed at the corners of a right angle triangle with the mutually perpendicular sides equal to \(2 \mathrm{~m}\) (see figure). Taking the point of intersection of the two mutually perpendicular sides as the origin, find the position vector of centre of mass.

149681 Consider a two block system having masses \(M_{A}=3 \mathrm{~kg}\) and \(M_{B}=\mathbf{2 k g}\), as shown in the figure. If block \(A\) is pushed towards the centre of mass through a distance \(200 \mathrm{~cm}\), by what distance should the block \(B\) be moved so as to keep the centre of mass at the same position.

149682 A uniform wire of length ' \(L\) ' with centre of mass at the origin is lying along the \(x\)-axis. The wire is bent in the form of a circle such that its lowest point is at the origin. Then shift of centre of mass is

149680 Figure shows triangular lamina which can rotate about different axis of rotation. Moment of inertia is maximum about the axis

149676 Two particles of mass \(5 \mathrm{~kg}\) and \(10 \quad \mathrm{~kg}\) respectively are attached to the two ends of a rigid rod of length \(1 \mathrm{~m}\) with negligible mass. The centre of mass of the system from the \(5 \mathbf{~ k g}\) particle is nearly at a distance of

149677 Three identical spheres, each of mass \(M\), are placed at the corners of a right angle triangle with the mutually perpendicular sides equal to \(2 \mathrm{~m}\) (see figure). Taking the point of intersection of the two mutually perpendicular sides as the origin, find the position vector of centre of mass.

149681 Consider a two block system having masses \(M_{A}=3 \mathrm{~kg}\) and \(M_{B}=\mathbf{2 k g}\), as shown in the figure. If block \(A\) is pushed towards the centre of mass through a distance \(200 \mathrm{~cm}\), by what distance should the block \(B\) be moved so as to keep the centre of mass at the same position.

149682 A uniform wire of length ' \(L\) ' with centre of mass at the origin is lying along the \(x\)-axis. The wire is bent in the form of a circle such that its lowest point is at the origin. Then shift of centre of mass is

149680 Figure shows triangular lamina which can rotate about different axis of rotation. Moment of inertia is maximum about the axis

149676 Two particles of mass \(5 \mathrm{~kg}\) and \(10 \quad \mathrm{~kg}\) respectively are attached to the two ends of a rigid rod of length \(1 \mathrm{~m}\) with negligible mass. The centre of mass of the system from the \(5 \mathbf{~ k g}\) particle is nearly at a distance of

149677 Three identical spheres, each of mass \(M\), are placed at the corners of a right angle triangle with the mutually perpendicular sides equal to \(2 \mathrm{~m}\) (see figure). Taking the point of intersection of the two mutually perpendicular sides as the origin, find the position vector of centre of mass.

149681 Consider a two block system having masses \(M_{A}=3 \mathrm{~kg}\) and \(M_{B}=\mathbf{2 k g}\), as shown in the figure. If block \(A\) is pushed towards the centre of mass through a distance \(200 \mathrm{~cm}\), by what distance should the block \(B\) be moved so as to keep the centre of mass at the same position.

149682 A uniform wire of length ' \(L\) ' with centre of mass at the origin is lying along the \(x\)-axis. The wire is bent in the form of a circle such that its lowest point is at the origin. Then shift of centre of mass is

149680 Figure shows triangular lamina which can rotate about different axis of rotation. Moment of inertia is maximum about the axis

149676 Two particles of mass \(5 \mathrm{~kg}\) and \(10 \quad \mathrm{~kg}\) respectively are attached to the two ends of a rigid rod of length \(1 \mathrm{~m}\) with negligible mass. The centre of mass of the system from the \(5 \mathbf{~ k g}\) particle is nearly at a distance of

149677 Three identical spheres, each of mass \(M\), are placed at the corners of a right angle triangle with the mutually perpendicular sides equal to \(2 \mathrm{~m}\) (see figure). Taking the point of intersection of the two mutually perpendicular sides as the origin, find the position vector of centre of mass.

149681 Consider a two block system having masses \(M_{A}=3 \mathrm{~kg}\) and \(M_{B}=\mathbf{2 k g}\), as shown in the figure. If block \(A\) is pushed towards the centre of mass through a distance \(200 \mathrm{~cm}\), by what distance should the block \(B\) be moved so as to keep the centre of mass at the same position.

149682 A uniform wire of length ' \(L\) ' with centre of mass at the origin is lying along the \(x\)-axis. The wire is bent in the form of a circle such that its lowest point is at the origin. Then shift of centre of mass is

149680 Figure shows triangular lamina which can rotate about different axis of rotation. Moment of inertia is maximum about the axis

149676 Two particles of mass \(5 \mathrm{~kg}\) and \(10 \quad \mathrm{~kg}\) respectively are attached to the two ends of a rigid rod of length \(1 \mathrm{~m}\) with negligible mass. The centre of mass of the system from the \(5 \mathbf{~ k g}\) particle is nearly at a distance of

149677 Three identical spheres, each of mass \(M\), are placed at the corners of a right angle triangle with the mutually perpendicular sides equal to \(2 \mathrm{~m}\) (see figure). Taking the point of intersection of the two mutually perpendicular sides as the origin, find the position vector of centre of mass.

149681 Consider a two block system having masses \(M_{A}=3 \mathrm{~kg}\) and \(M_{B}=\mathbf{2 k g}\), as shown in the figure. If block \(A\) is pushed towards the centre of mass through a distance \(200 \mathrm{~cm}\), by what distance should the block \(B\) be moved so as to keep the centre of mass at the same position.

149682 A uniform wire of length ' \(L\) ' with centre of mass at the origin is lying along the \(x\)-axis. The wire is bent in the form of a circle such that its lowest point is at the origin. Then shift of centre of mass is

149680 Figure shows triangular lamina which can rotate about different axis of rotation. Moment of inertia is maximum about the axis