360675 A dip needle lies initially in the magnetic meridian when it shows an angle of \(\operatorname{dip} \theta\) at a place. The dip circle is rotated through an angle \(x\) in the horizontal plane and then it shown an angle of \(\operatorname{dip} \theta^{\prime}\). Then \(\dfrac{\tan \theta^{\prime}}{\tan \theta}\) is
360675 A dip needle lies initially in the magnetic meridian when it shows an angle of \(\operatorname{dip} \theta\) at a place. The dip circle is rotated through an angle \(x\) in the horizontal plane and then it shown an angle of \(\operatorname{dip} \theta^{\prime}\). Then \(\dfrac{\tan \theta^{\prime}}{\tan \theta}\) is
360675 A dip needle lies initially in the magnetic meridian when it shows an angle of \(\operatorname{dip} \theta\) at a place. The dip circle is rotated through an angle \(x\) in the horizontal plane and then it shown an angle of \(\operatorname{dip} \theta^{\prime}\). Then \(\dfrac{\tan \theta^{\prime}}{\tan \theta}\) is
360675 A dip needle lies initially in the magnetic meridian when it shows an angle of \(\operatorname{dip} \theta\) at a place. The dip circle is rotated through an angle \(x\) in the horizontal plane and then it shown an angle of \(\operatorname{dip} \theta^{\prime}\). Then \(\dfrac{\tan \theta^{\prime}}{\tan \theta}\) is
360675 A dip needle lies initially in the magnetic meridian when it shows an angle of \(\operatorname{dip} \theta\) at a place. The dip circle is rotated through an angle \(x\) in the horizontal plane and then it shown an angle of \(\operatorname{dip} \theta^{\prime}\). Then \(\dfrac{\tan \theta^{\prime}}{\tan \theta}\) is