  We introduce fault-tolerant (FT) architectures for error correction with the
XZZX cluster state based on performing measurements of two-qubit Pauli
operators $Z\otimes Z$ and $X\otimes X$, or fusions, on a collection of
few-body entangled resource states. Our construction is tailored to be
effective against noise that predominantly causes faulty $X\otimes X$
measurements during fusions. This feature offers practical advantage in linear
optical quantum computing with dual-rail photonic qubits, where failed fusions
only erase $X\otimes X$ measurement outcomes. By applying our construction to
this platform, we find a record high FT threshold to fusion failures exceeding
$25\%$ in the experimentally relevant regime of non-zero loss rate per photon,
considerably simplifying hardware requirements.
