  We study the entanglement and work statistics in a driven two-qubit system.
The regulation of periodic driving has much more versatility and universality
in contrast to reservoir engineering in static systems. We found the
quasi-steady state entanglement can be amplified effectively by the external
drive in certain parameter regimes. The drive extends the range of temperatures
or temperature differences at which entanglement can emerge. From the view of
the effective Hamiltonian, the addition of the driving alters the inter-qubit
coupling and system-bath coupling, which are crucial in determining the
quasi-steady state. The work statistics are also investigated. The driven
system, as a continuous quantum thermal machine, output work continuously and
steadily at the quasi-steady state. There is a distinct operation of modes and
corresponding performance by changing driving. It can also be understood that
the drive changes the effective Hamiltonian, and further the modes of energy
exchanges between the system and the baths as well as the work reservoir.
