A uniform rod of mass M and length L is placed in a horizontal plane with one end hinged about the vertical axis. A horizontal force $F=\frac{Mg}{2}$ is applied at a distance $\frac{5L}{6}$ from the hinged end. The angular acceleration of the rod will be

Q. A rod of mass $M$ and length $L$ is placed in a horizontal plane with one end hinged about the vertical axis A horizontal force of $F=\frac{Mg}{2}$ is applied at a distance $\frac{5L}{6}$ from the hinged end . The angular acceleration of the rod will be :-

Q. A uniform rod of mass $M$ and length $L$ is placed in a horizontal plane with one end hinged about the vertical axis. A horizontal force $F=\frac{Mg}{2}$ is applied at a distance $\frac{5L}{6}$ from the hinged end. The angular acceleration of the rod will be:

Q. One end of a uniform rod having mass $m$ and length $l$ is hinged. The rod is placed on a smooth horizontal surface and rotates on it's about the hinged end at a uniform angular velocity $\omega$. The force exerted by the hinge on the rod has a horizontal component.

Q. One end of a uniform rod having mass m and length $l$ is hinged. The rod is placed on a smooth horizontal surface and rotates on it about the hinged end at a uniform angular velocity $\omega$. The force exerted by the hinge on the rod has a horizontal component equal to :

Q. A thin uniform rod of mass $m$ and length $L$ is hinged at its upper end and released from rest in horizontal position. The tension at a point located at a distance $L/3$ from the hinge point , when the rod becomes vertical, will be -