365938 A thin rod of length \(L\) and mass \(M\) is bent at its mid-point into two halves so that the angle between them is \(90^{\circ}\). The moment of inertia of the bent rod about an axis passing through the bending point and perpendicular to the plane defined by the two halves of the rod

365939 A uniform thin bar of mass \(6\;\,m\) and length \(12\;L\) is bent to make a regular hexagon. Its moment of inertia about an axis passing through the centre of mass and perpendicular to the plane of hexagon is

365940 If the moment of inertia of a disc about an axis tangential and parallel to its surface be \(I\), then what will be the moment of inertia about the axis tangential but perpendicular to the surface?

365941 A thin wire of length \(L\) and uniform linear mass density \(\rho\) is bent into a circular loop with centre at \(O\) as shown. The moment of inertia of the loop about an axis \(XY\) is

365942 Moment of inertia of uniform rod of mass \(m\) and length \(l\) is \(\dfrac{17}{12} m l^{2}\) about a line perpendicular to the rod. The distance of this line from the middle point of the rod is

365938 A thin rod of length \(L\) and mass \(M\) is bent at its mid-point into two halves so that the angle between them is \(90^{\circ}\). The moment of inertia of the bent rod about an axis passing through the bending point and perpendicular to the plane defined by the two halves of the rod

365939 A uniform thin bar of mass \(6\;\,m\) and length \(12\;L\) is bent to make a regular hexagon. Its moment of inertia about an axis passing through the centre of mass and perpendicular to the plane of hexagon is

365940 If the moment of inertia of a disc about an axis tangential and parallel to its surface be \(I\), then what will be the moment of inertia about the axis tangential but perpendicular to the surface?

365941 A thin wire of length \(L\) and uniform linear mass density \(\rho\) is bent into a circular loop with centre at \(O\) as shown. The moment of inertia of the loop about an axis \(XY\) is

365942 Moment of inertia of uniform rod of mass \(m\) and length \(l\) is \(\dfrac{17}{12} m l^{2}\) about a line perpendicular to the rod. The distance of this line from the middle point of the rod is

365938 A thin rod of length \(L\) and mass \(M\) is bent at its mid-point into two halves so that the angle between them is \(90^{\circ}\). The moment of inertia of the bent rod about an axis passing through the bending point and perpendicular to the plane defined by the two halves of the rod

365939 A uniform thin bar of mass \(6\;\,m\) and length \(12\;L\) is bent to make a regular hexagon. Its moment of inertia about an axis passing through the centre of mass and perpendicular to the plane of hexagon is

365940 If the moment of inertia of a disc about an axis tangential and parallel to its surface be \(I\), then what will be the moment of inertia about the axis tangential but perpendicular to the surface?

365941 A thin wire of length \(L\) and uniform linear mass density \(\rho\) is bent into a circular loop with centre at \(O\) as shown. The moment of inertia of the loop about an axis \(XY\) is

365942 Moment of inertia of uniform rod of mass \(m\) and length \(l\) is \(\dfrac{17}{12} m l^{2}\) about a line perpendicular to the rod. The distance of this line from the middle point of the rod is

365938 A thin rod of length \(L\) and mass \(M\) is bent at its mid-point into two halves so that the angle between them is \(90^{\circ}\). The moment of inertia of the bent rod about an axis passing through the bending point and perpendicular to the plane defined by the two halves of the rod

365939 A uniform thin bar of mass \(6\;\,m\) and length \(12\;L\) is bent to make a regular hexagon. Its moment of inertia about an axis passing through the centre of mass and perpendicular to the plane of hexagon is

365940 If the moment of inertia of a disc about an axis tangential and parallel to its surface be \(I\), then what will be the moment of inertia about the axis tangential but perpendicular to the surface?

365941 A thin wire of length \(L\) and uniform linear mass density \(\rho\) is bent into a circular loop with centre at \(O\) as shown. The moment of inertia of the loop about an axis \(XY\) is

365942 Moment of inertia of uniform rod of mass \(m\) and length \(l\) is \(\dfrac{17}{12} m l^{2}\) about a line perpendicular to the rod. The distance of this line from the middle point of the rod is

365938 A thin rod of length \(L\) and mass \(M\) is bent at its mid-point into two halves so that the angle between them is \(90^{\circ}\). The moment of inertia of the bent rod about an axis passing through the bending point and perpendicular to the plane defined by the two halves of the rod

365939 A uniform thin bar of mass \(6\;\,m\) and length \(12\;L\) is bent to make a regular hexagon. Its moment of inertia about an axis passing through the centre of mass and perpendicular to the plane of hexagon is

365940 If the moment of inertia of a disc about an axis tangential and parallel to its surface be \(I\), then what will be the moment of inertia about the axis tangential but perpendicular to the surface?

365941 A thin wire of length \(L\) and uniform linear mass density \(\rho\) is bent into a circular loop with centre at \(O\) as shown. The moment of inertia of the loop about an axis \(XY\) is

365942 Moment of inertia of uniform rod of mass \(m\) and length \(l\) is \(\dfrac{17}{12} m l^{2}\) about a line perpendicular to the rod. The distance of this line from the middle point of the rod is