Two weights `w_(1)` and `w_(2)` are suspended from the ends of a light string passing over a smooth fixed pulley. If the pulley is pulled up at an acceleration g , the tension in the string will be

The weights W and 2W are suspended from the ends of a light string passing over a smooth fixed pulley. If the pulley is pulled up with an acceleration of 10 m//s^(2) , the tension in the string will be ( g = 10 m//s^(2))

The weights W and 2W are suspended from the ends of a light string passing over a smooth fixed pulley. If the pulley is pulled up with an acceleration of 10 m//s^(2) , the tension in the string will be ( g = 10 m//s^(2))

Two weights w_(1) and w_2 are suspended to the two ends of a string passing over a smooth pulley. If the pulley is pulled up with acceleration g then find the tension in the string

Two bodies of masses m_(1) " and " m_(2) are connected a light string which passes over a frictionless massless pulley. If the pulley is moving upward with uniform acceleration (g)/(2) , then tension in the string will be

Two bodies of masses m_(1) " and " m_(2) are connected a light string which passes over a frictionless massless pulley. If the pulley is moving upward with uniform acceleration (g)/(2) , then tension in the string will be

Two masses m_(1) and m_(2) are connected by light inextensible string passing over a smooth pulley P . If the pulley moves vertically upwards with an acceleration equal to g then .

Two weights w, and w, are attached to the ends of a string which passes over a frictionless pulley. If the pulley is placed in a lift rising up with an acceleration equal to that of gravity i.e. '8', the tension in the string :