A. 0.77 A
Using the relationship:

where P is the power, V is the voltage, and R the resistance, we can find the resistance of each bulb.
For the first light bulb, P = 60 W and V = 120 V, so the resistance is

For the second light bulb, P = 200 W and V = 120 V, so the resistance is

The two light bulbs are connected in series, so their equivalent resistance is

The two light bulbs are connected to a voltage of
V = 240 V
So we can find the current through the two bulbs by using Ohm's law:

B. 142.3 W
The power dissipated in the first bulb is given by:

where
I = 0.77 A is the current
is the resistance of the bulb
Substituting numbers, we get

C. 42.7 W
The power dissipated in the second bulb is given by:

where
I = 0.77 A is the current
is the resistance of the bulb
Substituting numbers, we get

D. The 60-W bulb burns out very quickly
The power dissipated by the resistance of each light bulb is equal to:

where
E is the amount of energy dissipated
t is the time interval
From part B and C we see that the 60 W bulb dissipates more power (142.3 W) than the 200-W bulb (42.7 W). This means that the first bulb dissipates energy faster than the second bulb, so it also burns out faster.