363360 A smooth block is released from rest on a \(45^{\circ}\) smooth incline, it sildes a distance \(d\). If it slides same distance on a \(45^{\circ}\) rough incline, the time it takes is ' \(n\) ' times that on identical smooth incline, then the coefficient of friction on rough incline is

363361 A body is projected up a \({\rm{45}}^\circ \) rough incline. If the coefficient of friction is 0.5, then the retardation of the block is

363362 Two stationary blocks \(A\) and \(B\) of equal masses are released from an inclined plane of inclination \(60^{\circ}\) at \(t = 0.\) The coefficient of kinetic friction between the block \(A\) and the inclined plane is \(0.4\) while it is \(0.6\) for block \(B\). Initially the block \(A\) is \(2.4\;m\) behind the block \(B\). Both the blocks will come in a line after \(A\) has travelled a distance of how much down the plane.
(Take \(g = 10\;m{\rm{/}}{s^2}\) and \(\sqrt 3 = 1.73\)

363363 A block kept on a rough surface starts sliding when the inclination of the surface is ‘\(\theta \)’ with respect to the horizontal. The coefficient of static friction between the block and the surface is

363364 Two blocks are connected over a massless pulley as shown in fig. The mass of block \(A\) is \(10\;kg\) and the coefficient of kinetic friction is 0.2. Block \(A\) slides down the incline constant speed. The mass of block \(B\) in \(kg\) is:

363360 A smooth block is released from rest on a \(45^{\circ}\) smooth incline, it sildes a distance \(d\). If it slides same distance on a \(45^{\circ}\) rough incline, the time it takes is ' \(n\) ' times that on identical smooth incline, then the coefficient of friction on rough incline is

363361 A body is projected up a \({\rm{45}}^\circ \) rough incline. If the coefficient of friction is 0.5, then the retardation of the block is

363362 Two stationary blocks \(A\) and \(B\) of equal masses are released from an inclined plane of inclination \(60^{\circ}\) at \(t = 0.\) The coefficient of kinetic friction between the block \(A\) and the inclined plane is \(0.4\) while it is \(0.6\) for block \(B\). Initially the block \(A\) is \(2.4\;m\) behind the block \(B\). Both the blocks will come in a line after \(A\) has travelled a distance of how much down the plane.
(Take \(g = 10\;m{\rm{/}}{s^2}\) and \(\sqrt 3 = 1.73\)

363363 A block kept on a rough surface starts sliding when the inclination of the surface is ‘\(\theta \)’ with respect to the horizontal. The coefficient of static friction between the block and the surface is

363364 Two blocks are connected over a massless pulley as shown in fig. The mass of block \(A\) is \(10\;kg\) and the coefficient of kinetic friction is 0.2. Block \(A\) slides down the incline constant speed. The mass of block \(B\) in \(kg\) is:

363360 A smooth block is released from rest on a \(45^{\circ}\) smooth incline, it sildes a distance \(d\). If it slides same distance on a \(45^{\circ}\) rough incline, the time it takes is ' \(n\) ' times that on identical smooth incline, then the coefficient of friction on rough incline is

363361 A body is projected up a \({\rm{45}}^\circ \) rough incline. If the coefficient of friction is 0.5, then the retardation of the block is

363362 Two stationary blocks \(A\) and \(B\) of equal masses are released from an inclined plane of inclination \(60^{\circ}\) at \(t = 0.\) The coefficient of kinetic friction between the block \(A\) and the inclined plane is \(0.4\) while it is \(0.6\) for block \(B\). Initially the block \(A\) is \(2.4\;m\) behind the block \(B\). Both the blocks will come in a line after \(A\) has travelled a distance of how much down the plane.
(Take \(g = 10\;m{\rm{/}}{s^2}\) and \(\sqrt 3 = 1.73\)

363363 A block kept on a rough surface starts sliding when the inclination of the surface is ‘\(\theta \)’ with respect to the horizontal. The coefficient of static friction between the block and the surface is

363364 Two blocks are connected over a massless pulley as shown in fig. The mass of block \(A\) is \(10\;kg\) and the coefficient of kinetic friction is 0.2. Block \(A\) slides down the incline constant speed. The mass of block \(B\) in \(kg\) is:

363360 A smooth block is released from rest on a \(45^{\circ}\) smooth incline, it sildes a distance \(d\). If it slides same distance on a \(45^{\circ}\) rough incline, the time it takes is ' \(n\) ' times that on identical smooth incline, then the coefficient of friction on rough incline is

363361 A body is projected up a \({\rm{45}}^\circ \) rough incline. If the coefficient of friction is 0.5, then the retardation of the block is

363362 Two stationary blocks \(A\) and \(B\) of equal masses are released from an inclined plane of inclination \(60^{\circ}\) at \(t = 0.\) The coefficient of kinetic friction between the block \(A\) and the inclined plane is \(0.4\) while it is \(0.6\) for block \(B\). Initially the block \(A\) is \(2.4\;m\) behind the block \(B\). Both the blocks will come in a line after \(A\) has travelled a distance of how much down the plane.
(Take \(g = 10\;m{\rm{/}}{s^2}\) and \(\sqrt 3 = 1.73\)

363363 A block kept on a rough surface starts sliding when the inclination of the surface is ‘\(\theta \)’ with respect to the horizontal. The coefficient of static friction between the block and the surface is

363364 Two blocks are connected over a massless pulley as shown in fig. The mass of block \(A\) is \(10\;kg\) and the coefficient of kinetic friction is 0.2. Block \(A\) slides down the incline constant speed. The mass of block \(B\) in \(kg\) is:

363360 A smooth block is released from rest on a \(45^{\circ}\) smooth incline, it sildes a distance \(d\). If it slides same distance on a \(45^{\circ}\) rough incline, the time it takes is ' \(n\) ' times that on identical smooth incline, then the coefficient of friction on rough incline is

363361 A body is projected up a \({\rm{45}}^\circ \) rough incline. If the coefficient of friction is 0.5, then the retardation of the block is

363362 Two stationary blocks \(A\) and \(B\) of equal masses are released from an inclined plane of inclination \(60^{\circ}\) at \(t = 0.\) The coefficient of kinetic friction between the block \(A\) and the inclined plane is \(0.4\) while it is \(0.6\) for block \(B\). Initially the block \(A\) is \(2.4\;m\) behind the block \(B\). Both the blocks will come in a line after \(A\) has travelled a distance of how much down the plane.
(Take \(g = 10\;m{\rm{/}}{s^2}\) and \(\sqrt 3 = 1.73\)

363363 A block kept on a rough surface starts sliding when the inclination of the surface is ‘\(\theta \)’ with respect to the horizontal. The coefficient of static friction between the block and the surface is

363364 Two blocks are connected over a massless pulley as shown in fig. The mass of block \(A\) is \(10\;kg\) and the coefficient of kinetic friction is 0.2. Block \(A\) slides down the incline constant speed. The mass of block \(B\) in \(kg\) is: