The pull `P` is just suffiient to keep the `14 N` block in equilibrium as shown Pulleys are ideal Find the tension (in N) in the cable connected with ceiling
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The pull P is is just sufficient to keep the 14 N block in equilibrium as shown. Pulleys are ideal. Find the tension (in N) in the cable connected with ceiling.

The pull P is just sufficient to keep the 14 N block in equilibrium as shown . Pulleys are ideal . Find the tension ( in N) in the upper cable connected with celling

The pull P is just sufficient to keep the 14 N block in equilibrium as shown . Pulleys are ideal . Find the tension ( in N) in the upper cable connected with celling

A block of mass m as shown in figure is pulled by a force 40N. The tension at the middle of the block is

A block of mass m as shown in figure is pulled by a force 40N. The tension at the middle of the block is

A 10 kg block is connected to a 40 kg block as shown in the figure. The surface on that the blocks slide is frictionless. A force of 50 N pulls the blocks to the right. What is the magnitude of the tension T in the rope that connects the two blocks?

In the arrangement shown in figure the cylinder of mass M is at rest on an incline. The string between the cylinder and the pulley (P) is horizontal. Find the minimum coefficient of friction between the incline and the cylinder which can keep the system in equilibrium. Also find the mass of the block. Assume no friction between the pulley (P) and the string.

The block shown in figure is in equilibrium cut. Find acceleration of the block just after the string is