  Generation and preservation of quantum entanglement are among the primary
tasks in quantum information processing. State stabilization via quantum bath
engineering offers a resource-efficient approach to achieve this objective.
However, current methods for engineering dissipative channels to stabilize
target entangled states often require specialized hardware designs,
complicating experimental realization and hindering their compatibility with
scalable quantum computation architectures. In this work, we propose and
experimentally demonstrate a stabilization protocol readily implementable in
the mainstream integrated superconducting quantum circuits. The approach
utilizes a Raman process involving a resonant (or nearly resonant)
superconducting qubit array and their dedicated readout resonators to
effectively emerge nonlocal dissipative channels. Leveraging individual
controllability of the qubits and resonators, the protocol stabilizes two-qubit
Bell states with a fidelity of $90.7\%$, marking the highest reported value in
solid-state platforms to date. Furthermore, by extending this strategy to
include three qubits, an entangled $W$ state is achieved with a fidelity of
$86.2\%$, which has not been experimentally investigated before. Notably, the
protocol is of practical interest since it only utilizes existing hardware
common to standard operations in the underlying superconducting circuits,
thereby facilitating the exploration of many-body quantum entanglement with
dissipative resources.
