Block P of mass m is on a horizontal, frictionless surface and is attached to a spring with spring constant k. The block is oscillating with period TP and amplitude AP about the spring's equilibrium position x0. A second block Q of mass 2m is then dropped from rest and lands on block P at the instant it passes through the equilibrium position, as shown above. Block Q immediately sticks to the top of block P, and the two-block system oscillates with period TPQ and amplitude APQ. (a) Determine the numerical value of the ratio TPQ/TP.

Block P of mass m is on a horizontal, frictionless surface and is attached to a spring with spring constant k. The block is oscillating with period TP and amplitude AP about the spring's equilibrium position x0. A second block Q of mass 2m is then dropped from rest and lands on block P at the instant it passes through the equilibrium position, as shown above. Block Q immediately sticks to the top of block P, and the two-block system oscillates with period TPQ and amplitude APQ. (a) Determine the numerical value of the ratio TPQ/TP.

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Block P of mass m is on a horizontal, frictionless surface and is attached to a spring with spring constant k . The block is oscillating with period T P and amplitude A P about the spring's equilibrium position x 0 . A second block Q of mass 2 m is then dropped from rest and lands on block P at the instant it passes through the equilibrium position, as shown above. Block Q immediately sticks to the top of block P , and the two-block system oscillates with period T P Q and amplitude A P Q . (a) Determine the numerical value of the ratio T P Q / T P .

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