When the three blocks in the figure below are released from rest, they accelerate with a magnitude of 0.370 m/s2. Block 1 has mass M, block 2 has 5M, and block 3 has 5M. What is the coefficient of kinetic friction between block 2 and the table?

block 1 is haging off the table on the left of block 2, attached by rope. block 3 is hanging off the table to the right of 2, attached by rope. Ignore friction of pullies and weight of rope.

To find the coefficient of kinetic friction between block 2 and the table, we can analyze the forces acting on the system.

First, let's consider all the forces acting on block 1. Since block 1 is hanging off the table, there are two forces acting on it: its weight (mg) and the tension in the rope.

Next, let's consider the forces acting on block 2. Block 2 is in contact with the table, so in addition to its weight (5Mg), there is also a normal force (N) and a frictional force (f) pointing in the opposite direction of motion.

Finally, let's consider the forces acting on block 3. Similarly to block 1, block 3 is hanging off the table and experiences its weight (5Mg) and the tension in the rope.

Since the system is accelerating, we can equate the sum of the forces to the mass of the system multiplied by the acceleration.

For block 1:
T - mg = M * a

For block 2:
N - f - 5Mg = 5M * a

For block 3:
T - 5Mg = 5M * a

In this case, we are interested in finding the coefficient of kinetic friction between block 2 and the table. The frictional force (f) can be expressed as f = μk N, where μk is the coefficient of kinetic friction.

To proceed, we need to solve the system of equations using the given information about the acceleration and the masses. By substituting the equations and manipulating them, we can isolate the coefficient of kinetic friction.

After solving the equations, the coefficient of kinetic friction (μk) between block 2 and the table can be obtained by finding the ratio between the frictional force and the normal force: μk = f / N.

Please provide the values for the masses (M) and the acceleration (a) to proceed with the calculation.