This arXiv preprint (not yet peer-reviewed) reports an experimental demonstration of repeated syndrome extraction in a toric-code quantum error-correcting protocol on a neutral-atom array platform. Researchers used tweezer-confined atoms to implement mid-circuit measurements, atom replacement from a reservoir, and up to 90 cycles of error correction while preserving logical information. Methodology relied on direct 2D lattice connectivity for transversal gates and distance-2 versus larger-distance comparisons over 8 rounds, showing modestly lower logical error rates at increased distance. Sample size details are not quantified in the abstract but imply small-scale arrays typical of current neutral-atom testbeds. Limitations include the preprint status, restricted cycle counts for distance scaling tests, and absence of full fault-tolerant thresholds or arbitrary-depth scaling data. The work advances beyond prior neutral-atom efforts by demonstrating reservoir reloading for coherent operation, a step missed in coverage focused solely on physical qubit counts. It connects to Kitaev's original toric code (arXiv:quant-ph/9707021) and recent neutral-atom architecture papers such as Bluvstein et al. (Nature 2023) on logical qubit control, highlighting how atom mobility enables resource-efficient decoding paths that superconducting or ion-trap platforms struggle to match at scale.