The tension in the string connected between blocks is

Two blocks of masses 2 kg and 4 kg are hanging with the help of massless string passing over an ideal pulley inside an elevator. The elevator is moving upward with an acceleration (g)/(2) . The tension in the string connected between the blocks will be (Take g=10m//s^(2) ).

Two blocks of masses 2 kg and 4 kg are hanging with the help of massless string passing over an ideal pulley inside an elevator. The elevator is moving upward with an acceleration (g)/(2) . The tension in the string connected between the blocks will be (Take g=10m//s^(2) ).

In the system shown, the blocks A,B and C are of weight 4W, W and W respectively. The system set free. The tension in the string connecting the blocks B and C is

In the system shown, the blocks A,B and C are of weight 4W, W and W respectively. The system set free. The tension in the string connecting the blocks B and C is

Three blocks A,B and C of mass 10 kg each are hanging on a string passing over a fixed frictionless pulley as shown in figure. The tension in the string connecting blocks B and C is (g=10m//s^(2))

1.Consider the situation shown in figure (6-E2).Calculate (a) the acceleration of the 1*0kg blocks,(b) the tension in the string connecting the 1.0kg blocks and (c) the tension in the string attached to 0.50kg .

(A): In the given fig tension in the string that connects the two blocks is 10N so that the force F will be 35 N (R): Forces of tension, each of magnitude 10 N here, which of the two blocks exert on each other through the string, balance each other.

Figure shows two blocks connected by a light inextensible string as shown in figure. A force of 10 N is applied on the bigger block at 60^(@) with horizontal, then the tension in the st ring connection the two masses is -

Figure shows two blocks connected by a light inextensible string as shown in figure. A force of 10 N is applied on the bigger block at 60^(@) with horizontal, then the tension in the st ring connection the two masses is -