  We present a superconducting micro-resonator array fabrication method that is
scalable, reconfigurable, and has been optimized for high multiplexing factors.
The method uses uniformly sized tiles patterned on stepper photolithography
reticles as the building blocks of an array. We demonstrate this technique on a
101-element microwave kinetic inductance detector (MKID) array made from a
titanium-nitride superconducting film. Characterization reveals 1.5\% maximum
fractional frequency spacing deviations caused primarily by material parameters
that vary smoothly across the wafer. However, local deviations exhibit a
Gaussian distribution in fractional frequency spacing with a standard deviation
of $2.7 \times 10^{-3}$. We exploit this finding to increase the yield of the
BLAST-TNG $250 \; \mu\text{m}$ production wafer by placing resonators in the
array close in both physical and frequency space. This array consists of 1836
polarization-sensitive MKIDs wired in three multiplexing groups. We present the
array design and show that the achieved yield is consistent with our model of
frequency collisions and is comparable to what has been achieved in other low
temperature detector technologies.
