  We propose a complete architecture for deterministic generation of entangled
multiphoton states. Our approach utilizes periodic driving of a quantum-dot
emitter and an efficient light-matter interface enabled by a photonic crystal
waveguide. We assess the quality of the photonic states produced from a real
system by including all intrinsic experimental imperfections. Importantly, the
protocol is robust against the nuclear spin bath dynamics due to a naturally
built-in refocussing method reminiscent to spin echo. We demonstrate the
feasibility of producing Greenberger-Horne-Zeilinger and one-dimensional
cluster states with fidelities and generation rates exceeding those achieved
with conventional 'fusion' methods in current state-of-the-art experiments. The
proposed hardware constitutes a scalable and resource-efficient approach
towards implementation of measurement-based quantum communication and
computing.
