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Weinstein, et. al [1] [PRL 106, 052301 (2011)] and Hen, et. al [2] [PRC 85,047301 (2012)] observed a correlation between the EMC effect and the amount ofshort range correlated (SRC) pairs in nuclei which implies that quarkdistributions are different in SRC pairs as compared with free nucleons.Schmookler, et. al [3] [Nature 566, 354 (2019)] bolstered this by showing thatthe EMC data can be explained by a universal modification of the structure ofnucleons in neutron-proton SRC pairs and presented the first data-drivenextraction of this universal modification function (UMF).  Arrington and Fomin [4] [arxiv 1903.12535] attempt to gain insight into thecorrelation between the EMC effect and SRCs by distinguishing betweencorrelated nucleon pairs at high-virtuality (HV) vs. high local-density (LD).However, there is an inconsistency in their derivations of the UMFs, FLD univand FHV , causing a non-physical difference between them for asymmetric nuclei.In addition, the univ combinatorial scaling they used to extract high-LD np, ppand nn pairs from measured HV np pairs is contradicted by realistic ab-initioQuantum Monte-Carlo (QMC) calculations.

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